mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising: 1) 5 to 20% by wt. of a surfactant system comprising: a) alkali metal alkyl isethionate; b) alkali metal alkyl taurate; and c) amphoteric, preferably alkyl betaine, wherein weight ratio of (a) to (b) Is 1:1.5 to 1:6 (R=0.667 to 0.166), wherein ratio of (a) and (b)/(c) is 1:1 to 9:1; and 2) 20 to 60% by wt. glycerol. 1) 5 to 20% by wt. of a surfactant system comprising: a) alkali metal alkyl isethionate; b) alkali metal alkyl taurate; and c) amphoteric, preferably alkyl betaine, wherein weight ratio of (a) to (b) Is 1:1.5 to 1:6 (R=0.667 to 0.166), wherein ratio of (a) and (b)/(c) is 1:1 to 9:1; and a) alkali metal alkyl isethionate; b) alkali metal alkyl taurate; and c) amphoteric, preferably alkyl betaine, 2) 20 to 60% by wt. glycerol.
Device for shielding a power semiconductor that can be subjected to high voltage in a tank filled with an insulating fluid, wherein the device has the following features: - an electrode housing with electrically conductive electrode walls which encapsulate an electrode interior space configured to receive the power semiconductor from all sides in a limiting manner, wherein the electrode housing comprises multiple housing modules , wherein each housing module is configured to receive a power semiconductor , and - a barrier arrangement that comprises at least one barrier made of a non-conductive material, wherein the barrier arrangement encloses the electrode housing from all sides, characterized in that the electrode walls are configured to be plate-shaped in sections, wherein their edges are rounded. - an electrode housing with electrically conductive electrode walls which encapsulate an electrode interior space configured to receive the power semiconductor from all sides in a limiting manner, wherein the electrode housing comprises multiple housing modules , wherein each housing module is configured to receive a power semiconductor , and - a barrier arrangement that comprises at least one barrier made of a non-conductive material, wherein the barrier arrangement encloses the electrode housing from all sides,
A computer-implemented method of monitoring and/or controlling domestic hot water production and/or distribution, particularly by monitoring and/or controlling a system for monitoring and/or controlling domestic hot water production and/or distribution, the method comprising: - detecting (S10) at least two real temperatures (T 1R_t0 , T 2R_t0 ) of hot water, particularly sanitary hot water, that is stored in a heat storage tank , in particular a pressurized tank, by at least two real temperature sensors at two different positions along the height of the heat storage tank at least at few points in time (t 0, t 0-1, t 0-2 ), - acquiring, by a controller , the at least two real temperatures from the at least two real temperature sensors , - acquiring (S15A), by the controller , a plurality of virtual temperatures (T 1V_t0 , T 2V_t0 , ... T NV_t0 ) of the hot water stored in the heat storage tank at different positions along the height of the heat storage tank by applying a virtual-temperature-sensor-algorithm to the detected at least two real temperatures (T 1R_t0 , T 2R_t0 ) detected at least at few points in time (t 0 , t 0-1 , t 0-2) , and - acquiring (S20A), by the controller , a temperature distribution pattern (TDP 1 ) of heat stored in the heat storage tank and/or corresponding heat distribution pattern data by applying a temperature-distribution-pattern-algorithm to the detected at least two real temperatures (T 1R_t0 , T 2R_t0 ) detected at least at few points in time (t 0 ) and the acquired plurality of virtual temperatures (T 1V_t0 , T 2V_t0 , ... T NV_t0 ). - detecting (S10) at least two real temperatures (T 1R_t0 , T 2R_t0 ) of hot water, particularly sanitary hot water, that is stored in a heat storage tank , in particular a pressurized tank, by at least two real temperature sensors at two different positions along the height of the heat storage tank at least at few points in time (t 0, t 0-1, t 0-2 ), - acquiring, by a controller , the at least two real temperatures from the at least two real temperature sensors , - acquiring (S15A), by the controller , a plurality of virtual temperatures (T 1V_t0 , T 2V_t0 , ... T NV_t0 ) of the hot water stored in the heat storage tank at different positions along the height of the heat storage tank by applying a virtual-temperature-sensor-algorithm to the detected at least two real temperatures (T 1R_t0 , T 2R_t0 ) detected at least at few points in time (t 0 , t 0-1 , t 0-2) , and - acquiring (S20A), by the controller , a temperature distribution pattern (TDP 1 ) of heat stored in the heat storage tank and/or corresponding heat distribution pattern data by applying a temperature-distribution-pattern-algorithm to the detected at least two real temperatures (T 1R_t0 , T 2R_t0 ) detected at least at few points in time (t 0 ) and the acquired plurality of virtual temperatures (T 1V_t0 , T 2V_t0 , ... T NV_t0 ).
Electronic payment device intended to be integrated into an unattended electronic payment terminal, said electronic payment device comprising at least one electronic card , a screen and a metal keypad provided with physical keys, said electronic payment device being characterised in that it comprises a contactless payment module comprising at least one contactless antenna arranged on a plane, said antenna plane (P-CLESS), raised by a first predetermined distance (d1) with respect to the plane (P-K) of said keypad and raised by a second predetermined distance (d2) with respect to the plane (P-Dis) of said screen, said second predetermined distance (d2) being less than said first predetermined distance (d1).
A shower column comprising - a column body having a main longitudinal extension axis (Y-Y), - said column body extending from a lower end , where it is shaped to be fluidly connected to a water connection , to an upper end , where it comprises or supports a water supply point , - said column body sliding along said main longitudinal extension axis (Y-Y), - a wall mount for the column body , between the lower end and the upper end , comprising a first end at least partially surrounding a portion of the side wall of the column body and a second end shaped to lock the column body to a wall or panel, - locking/unlocking means of the column body with respect to said main longitudinal extension axis (Y-Y), wherein - said locking/unlocking means comprise a pusher , arranged at the first end of the wall mount , the pusher being movable from an extracted or locked position, wherein it abuts against said side wall of the column body so as to lock the column body in position, to a retracted position, wherein it does not interfere with the column body , characterized in that said pusher is joined to the wall mount according to a screw-type connection , along said transverse direction (X-X), wherein the pusher is equipped with an operating lever accessible from the outside of the wall mount , to achieve the roto-translation of the pusher with respect to the wall mount , wherein said wall mount comprises a slot that delimits two rotational end stops of the operating lever in locking and unlocking the column body . - a column body having a main longitudinal extension axis (Y-Y), - said column body extending from a lower end , where it is shaped to be fluidly connected to a water connection , to an upper end , where it comprises or supports a water supply point , - said column body sliding along said main longitudinal extension axis (Y-Y), - a wall mount for the column body , between the lower end and the upper end , comprising a first end at least partially surrounding a portion of the side wall of the column body and a second end shaped to lock the column body to a wall or panel, - locking/unlocking means of the column body with respect to said main longitudinal extension axis (Y-Y), - said locking/unlocking means comprise a pusher , arranged at the first end of the wall mount , the pusher being movable from an extracted or locked position, wherein it abuts against said side wall of the column body so as to lock the column body in position, to a retracted position, wherein it does not interfere with the column body , characterized in that said pusher is joined to the wall mount according to a screw-type connection , along said transverse direction (X-X), wherein the pusher is equipped with an operating lever accessible from the outside of the wall mount , to achieve the roto-translation of the pusher with respect to the wall mount , wherein said wall mount comprises a slot that delimits two rotational end stops of the operating lever in locking and unlocking the column body .
A method for manufacturing a pulverized material, wherein the method uses a vibration mill provided with: a container having therein a columnar space with a central axis of the columnar space being disposed so as to be almost horizontal while the container being held so as to be vibratable in a direction of within a plane that is almost perpendicular to the said central axis, a cylindrical medium disposed in the container so as to be vibratable, and a plurality of pulverizing media disposed inside the cylindrical medium so as to be vibratable; in the said vibration mill the ratio of an inner diameter of the cylindrical medium in contact with the pulverizing medium to an outer diameter of the pulverizing medium is 2.1 or more, and the integrated value of volumes of the pulverizing media is more than 25% relative to a space volume inside the cylindrical medium in contact with the pulverizing medium ; and the method comprises a step of a pulverizing treatment process of a raw material to be pulverized by vibrating the container after the said raw material to be pulverized is introduced into the container of the vibration mill. a container having therein a columnar space with a central axis of the columnar space being disposed so as to be almost horizontal while the container being held so as to be vibratable in a direction of within a plane that is almost perpendicular to the said central axis, a cylindrical medium disposed in the container so as to be vibratable, and a plurality of pulverizing media disposed inside the cylindrical medium so as to be vibratable; in the said vibration mill the ratio of an inner diameter of the cylindrical medium in contact with the pulverizing medium to an outer diameter of the pulverizing medium is 2.1 or more, and the integrated value of volumes of the pulverizing media is more than 25% relative to a space volume inside the cylindrical medium in contact with the pulverizing medium ; and the method comprises a step of a pulverizing treatment process of a raw material to be pulverized by vibrating the container after the said raw material to be pulverized is introduced into the container of the vibration mill.
A dongle comprising: a housing ; an infrared (IR) transceiver ; a processor ; a power source ; and a wireless interface device ; wherein: the IR transceiver of the dongle is configured to interact with an IR transceiver of a portable gas detector ; the processor is configured to translate between the IR transceiver of the dongle and the wireless interface device ; the housing comprises a means of attachment to the portable gas detector ; and the dongle is configured to interact with a user's portable device via a first wireless communication mode; characterized in that the means of attachment comprises one or more elements for inserting the dongle into a detachable boot of the portable gas detector . a housing ; an infrared (IR) transceiver ; a processor ; a power source ; and a wireless interface device ; wherein: the IR transceiver of the dongle is configured to interact with an IR transceiver of a portable gas detector ; the processor is configured to translate between the IR transceiver of the dongle and the wireless interface device ; the housing comprises a means of attachment to the portable gas detector ; and the dongle is configured to interact with a user's portable device via a first wireless communication mode; characterized in that the means of attachment comprises one or more elements for inserting the dongle into a detachable boot of the portable gas detector . the IR transceiver of the dongle is configured to interact with an IR transceiver of a portable gas detector ; the processor is configured to translate between the IR transceiver of the dongle and the wireless interface device ; the housing comprises a means of attachment to the portable gas detector ; and the dongle is configured to interact with a user's portable device via a first wireless communication mode; characterized in that the means of attachment comprises one or more elements for inserting the dongle into a detachable boot of the portable gas detector .
An system comprising: a plurality of heterogeneous processing elements (103-109); a hardware heterogeneous scheduler to dispatch instructions for execution on one or more of the plurality of heterogeneous processing elements (103-109), the instructions corresponding to a code fragment to be processed by the one or more of the plurality of heterogeneous processing elements (103-109), characterized in that the heterogeneous scheduler translates the code fragment into a format corresponding to a selected type of heterogeneous processing element (103-109) using one or more converters to generate instructions that are native instructions to at least one of the one or more of the plurality of heterogeneous processing elements (103-109). a plurality of heterogeneous processing elements (103-109); a hardware heterogeneous scheduler to dispatch instructions for execution on one or more of the plurality of heterogeneous processing elements (103-109), the instructions corresponding to a code fragment to be processed by the one or more of the plurality of heterogeneous processing elements (103-109), characterized in that the heterogeneous scheduler translates the code fragment into a format corresponding to a selected type of heterogeneous processing element (103-109) using one or more converters to generate instructions that are native instructions to at least one of the one or more of the plurality of heterogeneous processing elements (103-109).
A support for suspending an automotive part, in particular a heat exchanger frame, on an automotive chassis, said support taking the overall shape of a plate including a main plane, and said support comprising: • an outer armature including a member for fastening to said automotive chassis, • an inner armature configured to be fitted onto a pin of said automotive part, in a direction perpendicular to said main plane, • an elastic suspension element disposed between said outer armature and said inner armature, said support being characterized in that it comprises: • a pin protruding from the outer armature and extending in said main plane, and, • an elongated elastic stop transversely fitted, by a first end , onto said pin, said elastic stop and said pin being configured so that said elastic stop is capable of taking a plurality of angular positions around said pin, including at least: • one first angular position of use, called right angular position of use, in which said elastic stop protrudes from the main plane, on a first side of said main plane, • a second angular position of use, called left angular position of use, in which said elastic stop protrudes from the main plane, on a second side of said main plane, said elastic stop being configured to be coupled by the second end thereof to said automotive part when it is in one of the angular positions of use. • an outer armature including a member for fastening to said automotive chassis, • an inner armature configured to be fitted onto a pin of said automotive part, in a direction perpendicular to said main plane, • an elastic suspension element disposed between said outer armature and said inner armature, said support being characterized in that it comprises: • a pin protruding from the outer armature and extending in said main plane, and, • an elongated elastic stop transversely fitted, by a first end , onto said pin, • a pin protruding from the outer armature and extending in said main plane, and, • an elongated elastic stop transversely fitted, by a first end , onto said pin, said elastic stop and said pin being configured so that said elastic stop is capable of taking a plurality of angular positions around said pin, including at least: • one first angular position of use, called right angular position of use, in which said elastic stop protrudes from the main plane, on a first side of said main plane, • a second angular position of use, called left angular position of use, in which said elastic stop protrudes from the main plane, on a second side of said main plane, • one first angular position of use, called right angular position of use, in which said elastic stop protrudes from the main plane, on a first side of said main plane, • a second angular position of use, called left angular position of use, in which said elastic stop protrudes from the main plane, on a second side of said main plane, said elastic stop being configured to be coupled by the second end thereof to said automotive part when it is in one of the angular positions of use.
A series-parallel structure lamp string, comprising: two wires and a plurality of lamp beads , wherein one or more single-wire gaps are formed on each of the two wires , and the plurality of lamp beads at two sides of each single-wire gap are connected in parallel with the two wires on each side of each single-wire gap in such a manner that negative poles of lamp beads in parallel connection at one side of each single wire gap are connected with positive poles of lamp beads in parallel connection at the other side of each single wire gap , such that the connection relation between lamp beads adjacent to each single-wire gap are in series connection ; characterized in that two wire ends at each single-wire gap are encapsulated and fixed with adjacent lamp beads by glue.
An ultrasonic instrument comprising: (a) a body , wherein the body defines a longitudinal axis, wherein the body is configured to receive an ultrasonic transducer ; (b) an actuation assembly , wherein the actuation assembly comprises: (i) at least one annular activation member , wherein the at least one annular activation member extends angularly about the body along a 360 degree angular range, wherein each of the at least one annular activation member is configured to be actuated radially inwardly from any angle around a perimeter of the body such that the entire annular activation member moves laterally relative to the longitudinal axis of the body, and (ii) at least one activation circuit corresponding to the at least one annular activation member; (c) a shaft assembly , wherein the shaft assembly comprises an acoustic waveguide ; and (d) an ultrasonic blade , wherein the ultrasonic blade is in acoustic communication with the acoustic waveguide, wherein the at least one activation circuit is configured to activate the ultrasonic blade in response to lateral movement of the at least one annular activation member relative to the longitudinal axis of the body. (a) a body , wherein the body defines a longitudinal axis, wherein the body is configured to receive an ultrasonic transducer ; (b) an actuation assembly , wherein the actuation assembly comprises: (i) at least one annular activation member , wherein the at least one annular activation member extends angularly about the body along a 360 degree angular range, wherein each of the at least one annular activation member is configured to be actuated radially inwardly from any angle around a perimeter of the body such that the entire annular activation member moves laterally relative to the longitudinal axis of the body, and (ii) at least one activation circuit corresponding to the at least one annular activation member; (i) at least one annular activation member , wherein the at least one annular activation member extends angularly about the body along a 360 degree angular range, wherein each of the at least one annular activation member is configured to be actuated radially inwardly from any angle around a perimeter of the body such that the entire annular activation member moves laterally relative to the longitudinal axis of the body, and (ii) at least one activation circuit corresponding to the at least one annular activation member; (c) a shaft assembly , wherein the shaft assembly comprises an acoustic waveguide ; and (d) an ultrasonic blade , wherein the ultrasonic blade is in acoustic communication with the acoustic waveguide, wherein the at least one activation circuit is configured to activate the ultrasonic blade in response to lateral movement of the at least one annular activation member relative to the longitudinal axis of the body.
Process for opening cooling-air holes (15', 15", 15"') of cooling-air rows (10', 10", 10", ...) in a component , which has at least one row (10, 10', 10", 10"'', ...) of holes (4, 13', 13", 15', 15", ...), in which process at least two holes (13', 13", 13"', ...), but not all the holes (15', 15", ...), in the at least one row (10, 10', 10", 10"', ...) of holes are provided with a masking material before the coating, such that the at least two holes (13', 13", 13"', ...) are not coated or are scarcely coated during the coating within the cooling-air hole (13', 13", ...), and the component having open holes (15', 15", ...) and closed holes (13', 13", 13"', ...) is coated, in which the masking material is removed from the cooling-air bores (13', 13", 13"') after the coating, in order to coat said component, and the cooling-air holes (15', 15", ...) are reopened by a machining machine in which the actual alignment of the cooling-air holes (13', 13", ..., 15', 15", ...) arranged in a row (10, 10', 10", 10"', ...) of holes is determined by using the cooling-air bores (13', 13", 13"'), which are not coated during the coating, in a row (10, 10', 10", 10"', ...) of holes, in order to determine the position of the coated cooling-air holes (15', 15").
A bacterial composition comprising at least one strain of Bacillus licheniformis that is capable of (a) degrading complex carbohydrates selected from the group comprising: hemicellulose, cellulose, and combinations thereof, lignin, and protein; and (b) assimilating ammonia; wherein the at least one strain of Bacillus licheniformis comprises a gram positive, catalase positive and oxidase positive rod shaped strain that has a white coloured, rough surfaced colony morphology, and in which the at least one strain of Bacillus licheniformis comprises a strain selected from the group comprising the Bacillus licheniformis strain deposited at NCIMB Ltd. with accession number NCIMB 42690 having a white colour, rough surface, irregular form, flat elevation, and curled margin colony morphology, the Bacillus licheniformis strain deposited at NCIMB Ltd. with accession number NCIMB 42691 having a white colour, rough surface, filamentous form, raised elevation, and filamentous margin colony morphology, and combinations thereof. the Bacillus licheniformis strain deposited at NCIMB Ltd. with accession number NCIMB 42690 having a white colour, rough surface, irregular form, flat elevation, and curled margin colony morphology, the Bacillus licheniformis strain deposited at NCIMB Ltd. with accession number NCIMB 42691 having a white colour, rough surface, filamentous form, raised elevation, and filamentous margin colony morphology, and combinations thereof.