mhurhangee/patent-ind-claim-en huggingface dataset:
A surface cleaning apparatus , comprising: a base assembly including a suction nozzle and at least one wheel ; a hand-held portion having a hand grip , a recovery container , and a suction source in fluid communication with the suction nozzle and the recovery container and configured for generating a working airstream; a wand operably coupled between the base assembly and the hand-held portion and defining at least a portion of a working air path extending from the suction nozzle to an air outlet in the hand-held portion and including the suction source ; characterized by a gripping assembly moveably mounted to the hand-held portion and moveable between a first position and a second position wherein at least a portion of the gripping assembly is configured to engage a surface or object against which the surface cleaning apparatus is leaned. a base assembly including a suction nozzle and at least one wheel ; a hand-held portion having a hand grip , a recovery container , and a suction source in fluid communication with the suction nozzle and the recovery container and configured for generating a working airstream; a wand operably coupled between the base assembly and the hand-held portion and defining at least a portion of a working air path extending from the suction nozzle to an air outlet in the hand-held portion and including the suction source ; characterized by a gripping assembly moveably mounted to the hand-held portion and moveable between a first position and a second position wherein at least a portion of the gripping assembly is configured to engage a surface or object against which the surface cleaning apparatus is leaned.
A method performed by a wireless device , for operating in a Fifth Generation, 5G, network , the method comprising: receiving data to be transmitted as an uplink, UL, transmission in Configured Grant, CG, resources, the data to be transmitted Knumber of times within a CG period for the CG resources; determining that a number of Transmission Occasions, TOs, remaining within the CG resources and within the CG period for the wireless device is less than K; and transmitting the data within the remaining TOs within the CG resources, the method characterized by : also transmitting the data within TOs within shared resources, which are different from the CG resources, such that the transmission is performed at least K number of times. receiving data to be transmitted as an uplink, UL, transmission in Configured Grant, CG, resources, the data to be transmitted Knumber of times within a CG period for the CG resources; determining that a number of Transmission Occasions, TOs, remaining within the CG resources and within the CG period for the wireless device is less than K; and transmitting the data within the remaining TOs within the CG resources, the method characterized by : also transmitting the data within TOs within shared resources, which are different from the CG resources, such that the transmission is performed at least K number of times.
Holder (1; 20), such as for instance a plastic container, jerrycan or the like, for holding a liquid, the holder (1; 20) comprising: - a supply chamber (2; 21) with a bottom surface , a peripheral wall standing from the peripheral edge of the bottom surface and a closing upper surface , wherein a passage opening is arranged close to or in the upper surface ; - a dosing chamber (3; 22) arranged on the passage opening of the supply chamber (2; 21), extending at least partly below the level of the passage opening , wherein the dosing chamber further comprises a pouring opening (9; 23) for pouring the liquid out of the dosing chamber ; and - a closure (10, 11, 12, 14, 15; 24, 25, 27, 28) for closing either the pouring opening (9; 23) or the passage opening as desired, comprising a valve (12; 27) for closing the passage opening and a closing cap (10; 24, 25) arranged on the pouring opening (9; 23) wherein the closure (10, 11, 12, 14, 15; 24, 25) comprises a coupling (11, 14, 15; 28, 29, 30) for effecting a coupling between the closing cap (10; 24, 25) and the valve (12; 27) during sealing of the pouring opening (9; 23) with the closing cap (10; 24, 25) and wherein the coupling (11, 14, 15; 28, 29, 30) comprises an elongate coupling element or valve stem and at least one finger or hook and a cooperating groove or thickened upper side characterized in that the finger or hook extends substantially perpendicular to the coupling element or valve stem . - a supply chamber (2; 21) with a bottom surface , a peripheral wall standing from the peripheral edge of the bottom surface and a closing upper surface , wherein a passage opening is arranged close to or in the upper surface ; - a dosing chamber (3; 22) arranged on the passage opening of the supply chamber (2; 21), extending at least partly below the level of the passage opening , wherein the dosing chamber further comprises a pouring opening (9; 23) for pouring the liquid out of the dosing chamber ; and - a closure (10, 11, 12, 14, 15; 24, 25, 27, 28) for closing either the pouring opening (9; 23) or the passage opening as desired, comprising a valve (12; 27) for closing the passage opening and a closing cap (10; 24, 25) arranged on the pouring opening (9; 23)
A method for controlling access to an electronic device , the method carried out by the electronic device, comprising: activating an imager of the electronic device , based on detected motion of a user, to capture a first set of image data of the user; carrying out a first authentication procedure on the user based on the user's body geometry with the first set of image data; granting the user a first level of access to the electronic device based on the first set of image data; altering a setting of the imager to facilitate user authentication based on further occurrences of the detected motion of the user; capturing a second set of image data of the user with the imager after altering the setting; carrying out a second authentication procedure on the user based on the user's body geometry with the second set of image data; and granting the user a second level of access to the electronic device based on the second set of image data. activating an imager of the electronic device , based on detected motion of a user, to capture a first set of image data of the user; carrying out a first authentication procedure on the user based on the user's body geometry with the first set of image data; granting the user a first level of access to the electronic device based on the first set of image data; altering a setting of the imager to facilitate user authentication based on further occurrences of the detected motion of the user; capturing a second set of image data of the user with the imager after altering the setting; carrying out a second authentication procedure on the user based on the user's body geometry with the second set of image data; and granting the user a second level of access to the electronic device based on the second set of image data.
A space propulsion system , comprising: • a combustion chamber being comprised of a cylindrical container having cylindrical walls extending from a first end to an opposite second end , the first end being provided with a first injection duct for injection of oxygen serving as a combustion agent, hydrogen serving as a fuel and/or a mixture thereof, in a direction tangential to said cylindrical walls so as to induce a helical combustion path in the combustion chamber , a discharge duct connected to the cylindrical walls at the opposite end , the discharge duct being arranged according to a direction tangential to said cylindrical walls so as to receive and direct said helical combustion path; and • a supersonic nozzle , connected to said discharge duct for discharging the combustion products in the combustion chamber-, the space propulsion system being configured for providing propulsion of a satellite, and a second injection duct provided perpendicular to the cylindrical walls of the combustion chamber and parallel to the plane of the first end , wherein the axis of the second injection duct intersects a central longitudinal axis of the cylindrical container of the combustion chamber and a position of the second injection duct is such that an inlet in the combustion chamber takes place at the inlet of the first injection duct , so that a gaseous flow injected through the first injection duct intersects another gaseous flow injected through the second injection duct , the second injection duct for injection of the hydrogen or the oxygen in a direction perpendicular to said cylindrical walls. • a combustion chamber being comprised of a cylindrical container having cylindrical walls extending from a first end to an opposite second end , the first end being provided with a first injection duct for injection of oxygen serving as a combustion agent, hydrogen serving as a fuel and/or a mixture thereof, in a direction tangential to said cylindrical walls so as to induce a helical combustion path in the combustion chamber , a discharge duct connected to the cylindrical walls at the opposite end , the discharge duct being arranged according to a direction tangential to said cylindrical walls so as to receive and direct said helical combustion path; and • a supersonic nozzle , connected to said discharge duct for discharging the combustion products in the combustion chamber-,
A method for a network analytics tool capable of analyzing a time-varying set of parameter values for each of a plurality of measurable parameters and visually outputting a plurality of visualization objects , each of the visualization objects comprising one or more visualization items , each visualization item representative of one of the plurality of measurable parameters, the method comprising: obtaining (S120), for each of the plurality of visualization objects , a value of a first object-related metric; establishing (S140) a visualization object ranking on the basis of the value of the first object-related metric and a value of a second object-related metric of each of the plurality of visualization objects , the value of the second object-related metric determined based on a user-specific ranking of measurable parameters independently of the parameter values of the measurable parameter of each visualization item included in the visualization object ; and causing (S150) generation of a sensory-perceptible output indicative of the visualization object ranking established on the basis of the obtained value of the first object-related metric and the obtained value of the second object-related metric of each of the plurality of visualization objects , wherein obtaining a value of the first object-related metric includes: for each of one or more of the plurality of visualization objects , determining a value of the first object-related metric based at least on the set of parameter values of the measurable parameter of each visualization item included in the visualization object . obtaining (S120), for each of the plurality of visualization objects , a value of a first object-related metric; establishing (S140) a visualization object ranking on the basis of the value of the first object-related metric and a value of a second object-related metric of each of the plurality of visualization objects , the value of the second object-related metric determined based on a user-specific ranking of measurable parameters independently of the parameter values of the measurable parameter of each visualization item included in the visualization object ; and causing (S150) generation of a sensory-perceptible output indicative of the visualization object ranking established on the basis of the obtained value of the first object-related metric and the obtained value of the second object-related metric of each of the plurality of visualization objects , wherein obtaining a value of the first object-related metric includes: for each of one or more of the plurality of visualization objects , determining a value of the first object-related metric based at least on the set of parameter values of the measurable parameter of each visualization item included in the visualization object .
Arrangement of micromechanical actuators with integrated control circuit, comprising: - a digital-to-analog converter ; and - a plurality of micromechanical actuators; wherein - the micromechanical actuators are electrically coupled to a connecting structure; wherein - the digital-to-analog converter is configured to provide a voltage to be applied to the connecting structure by an adjustable capacitive voltage division that is dependent on a digital input value of the digital-to-analog converter, wherein - the digital-to-analog converter is configured to directly incorporate a capacitance of the connecting structure into the capacitive voltage division, wherein - the digital-to-analog converter and the micromechanical actuators are arranged on one and the same semiconductor chip, wherein the connecting structure includes a connecting line and a plurality of switching transistors connected between the connecting line and storage capacitors associated with the respective micromechanical actuators, and - wherein the connecting line is passively coupled to a plurality of capacitors that serve to provide an adjustable voltage division. - a digital-to-analog converter ; and - a plurality of micromechanical actuators; wherein - the micromechanical actuators are electrically coupled to a connecting structure; wherein - the digital-to-analog converter is configured to provide a voltage to be applied to the connecting structure by an adjustable capacitive voltage division that is dependent on a digital input value of the digital-to-analog converter, wherein - the digital-to-analog converter is configured to directly incorporate a capacitance of the connecting structure into the capacitive voltage division, wherein - the digital-to-analog converter and the micromechanical actuators are arranged on one and the same semiconductor chip, wherein the connecting structure includes a connecting line and a plurality of switching transistors connected between the connecting line and storage capacitors associated with the respective micromechanical actuators, and - wherein the connecting line is passively coupled to a plurality of capacitors that serve to provide an adjustable voltage division.
Method of manufacturing a hollow glass product from a glass tube semi-finished product , comprising the steps of: providing the glass tube semi-finished product with a first mark (2; 3), wherein the first mark is applied without changing the physical or chemical properties of the inner surface of the glass tube semi-finished product ; further processing of the glass tube semi-finished product and at least section-wise thermal reshaping the glass tube semi-finished product into the hollow glass product at temperatures above the transformation temperature (T G ) of the glass of the glass tube semi-finished product ; wherein the first mark (2; 3) remains unchanged during further processing of the glass tube semi-finished product and the at least section-wise thermal reshaping of the glass tube semi-finished product into the hollow glass product , and wherein the first mark (2; 3) includes information on an origin and/or on tube-specific production data of the glass tube semi-finished product and can be read out on the manufactured hollow glass product after its manufacture in order to enable a decision on the origin and/or on the tube-specific production data of the glass tube semi-finished product . providing the glass tube semi-finished product with a first mark (2; 3), wherein the first mark is applied without changing the physical or chemical properties of the inner surface of the glass tube semi-finished product ; further processing of the glass tube semi-finished product and at least section-wise thermal reshaping the glass tube semi-finished product into the hollow glass product at temperatures above the transformation temperature (T G ) of the glass of the glass tube semi-finished product ; wherein the first mark (2; 3) remains unchanged during further processing of the glass tube semi-finished product and the at least section-wise thermal reshaping of the glass tube semi-finished product into the hollow glass product , and wherein the first mark (2; 3) includes information on an origin and/or on tube-specific production data of the glass tube semi-finished product and can be read out on the manufactured hollow glass product after its manufacture in order to enable a decision on the origin and/or on the tube-specific production data of the glass tube semi-finished product .
Fastening and guiding device for electric harnesses running between a longitudinal member and a covering lining ; said device comprising an elongated main body intended to be fixed by means of fixing means against and along said longitudinal beam between the latter and said covering lining , said body comprising a first longitudinal chute with inverted U-section intended to receive a first said electrical beam (F1) and comprising a roof and two side walls , said body also comprising cover means mounted articulated on said first chute head and capable of closing at least the major part of the latter, said fastening and guiding device being characterized in that said body comprises a second longitudinal channel with a U-shaped section adjoining said first channel , designed to receive a second said electrical beam (F2), and comprising a sole and two side walls , the second channel comprising a sole and two side walls one of which merges here the side wall of the inner chute so as to form a partition between these two chutes .
An igniter device (230;330) for a combustion system , the device comprising: an igniter housing (242;342) surrounding an electrode (246;346) and an insulating body (244;344) and having a tip (234;334) configured to be positioned within a chamber for combustion ; and a first pressure sense passage (250;350) integrated with the igniter housing, wherein the first pressure sense passage is configured to direct a fluid to a first pressure sensor ; characterised by a second pressure sense passage (266;366) configured to direct a fluid to a second pressure sensor and integrated with the igniter, the second pressure sense passage having a first end (266a;366a) and a second end (266b;366b), wherein the second end is positioned at the tip of the igniter housing; wherein the second pressure sense passage (266;366) is attached to an exterior surface of the igniter housing; wherein the second pressure sense passage (266;366) is configured to direct fluid from within the chamber for combustion to the second pressure sensor; wherein the first pressure sense passage has a first end and a second end; and wherein the second end of the first pressure sense passage is at a location intermediate the first end of the first pressure sense passage and the tip of the igniter. an igniter housing (242;342) surrounding an electrode (246;346) and an insulating body (244;344) and having a tip (234;334) configured to be positioned within a chamber for combustion ; and a first pressure sense passage (250;350) integrated with the igniter housing, wherein the first pressure sense passage is configured to direct a fluid to a first pressure sensor ; characterised by a second pressure sense passage (266;366) configured to direct a fluid to a second pressure sensor and integrated with the igniter, the second pressure sense passage having a first end (266a;366a) and a second end (266b;366b), wherein the second end is positioned at the tip of the igniter housing; wherein the second pressure sense passage (266;366) is attached to an exterior surface of the igniter housing; wherein the second pressure sense passage (266;366) is configured to direct fluid from within the chamber for combustion to the second pressure sensor; wherein the first pressure sense passage has a first end and a second end; and wherein the second end of the first pressure sense passage is at a location intermediate the first end of the first pressure sense passage and the tip of the igniter.
Use of (A) an ester of levulinic acid with a fatty alcohol having 8 to 22, preferably 8 to 18, C-atoms as solubilizing agent for oil soluble organic UV filters (B) wherein the oil soluble organic UV filters (B) are selected from (B1) benzophenone derivatives, (B2) hydroxyphenyl triazine derivatives; and (B3) trianilino-s-triazine derivatives. (B1) benzophenone derivatives, (B2) hydroxyphenyl triazine derivatives; and (B3) trianilino-s-triazine derivatives.
Mounting device, with a mounting element of lesser wall thickness, for example a small mounting plate or a mounting disc, for fixing to another part, with at least one mounting hole through which may pass a mounting member , the outer surface of which may be brought into contact with an inner wall of the mounting hole forming a contact surface wherein, to increase the contact surface, the inner wall is or may be extended in the axial direction of the mounting hole by at least one tab , characterised in that the tab or tabs may be bent between an initial position in which it or they extend radially into the free opening cross-section of the mounting hole , wherein the tab is so designed that it may be bent through the insertion of the mounting member from the initial position into the contact position.
Magnetically coupled pump with - a pump housing , - a housing cover which closes the pump housing , and - a split can which has a metallic inner can and a ceramic outer can on which a flange is formed, characterised in that the inner can is welded to the housing cover and the outer can is braced against the housing cover via a clamping ring on the flange . - a pump housing , - a housing cover which closes the pump housing , and - a split can which has a metallic inner can and a ceramic outer can on which a flange is formed,