mhurhangee/patent-ind-claim-en huggingface dataset:
An atomizer of an electronic cigarette, comprising: a main body defining an airflow channel and a liquid storage cavity isolated from each other therein; and an atomizing element comprising a porous body and a porous heating film; the porous body comprising an atomizing surface and a liquid absorption surface ; the atomizing surface being substantially parallel to a direction of an airflow in the airflow channel , the porous heating film being formed on the atomizing surface and being capable of absorbing liquid in the liquid storage cavity , characterized in that the atomizing surface is a plane and the porous body comprises an integrally connected main part and a protruding portion , the atomizing surface is located on the main part , the liquid absorption surface is located on the protruding portion away from the main part . a main body defining an airflow channel and a liquid storage cavity isolated from each other therein; and an atomizing element comprising a porous body and a porous heating film; the porous body comprising an atomizing surface and a liquid absorption surface ; the atomizing surface being substantially parallel to a direction of an airflow in the airflow channel , the porous heating film being formed on the atomizing surface and being capable of absorbing liquid in the liquid storage cavity , characterized in that the atomizing surface is a plane and the porous body comprises an integrally connected main part and a protruding portion , the atomizing surface is located on the main part , the liquid absorption surface is located on the protruding portion away from the main part .
A flushing arrangement for flushing (purging) a fuel cell unit on its anode side and/or an electrolysis unit on its cathode side , wherein the flushing arrangement has a flushing channel with a first and a second flushing channel section, which can be fluidically connected to one another via a purge valve of the flushing arrangement , and with a buffer store which is fluidically connected to the flushing channel and downstream of the purge valve , and which has a storage chamber that is provided for intermediate storage of a fluid mass to be flushed in a pulse-type manner with a flush mass flow (M1) from the fuel cell unit and/or the electrolysis unit , so that this fluid mass can be discharged with a discharge mass flow (M2), which is smaller than the flush mass flow (M1), out of an outflow element fluidically connected to the second flushing channel section wherein the storage chamber is expandable by the fluid mass to be flushed in a pulse-type manner with the flush mass flow (M1) from the fuel cell unit and/or the electrolysis unit and a fill height sensor is assigned to the buffer store , which is in particular designed and arranged to detect an expansion state of the storage chamber .
A variegator comprising: a. one or more conduits each suitable for feeding one or more base frozen confections to a first set of one or more openings into a chamber, b. one or more conduits suitable for feeding one or more non-solid fluid variegating materials through a second set of one or more openings into the chamber, the second set of one or more openings being at points below the base frozen confections opening(s), and c. a static mixer below the one or more variegating material openings, said static mixer comprising at least two baffles in series, the axis of the conduit through which the variegating material is fed through the one or more second openings into the chambers is disposed perpendicularly at the point of entry to the chamber(s) to the axis of at least one of the one or more conduits through which the base frozen confection is fed to the base frozen confection opening into the chambers at the point of entry to the chamber(s), wherein the first of the at least two static mixer baffles beginning at from 0 to 12 mm of the bottom of the variegating material opening or openings and the baffles of the static mixer are helical. a. one or more conduits each suitable for feeding one or more base frozen confections to a first set of one or more openings into a chamber, b. one or more conduits suitable for feeding one or more non-solid fluid variegating materials through a second set of one or more openings into the chamber, the second set of one or more openings being at points below the base frozen confections opening(s), and c. a static mixer below the one or more variegating material openings, said static mixer comprising at least two baffles in series, the axis of the conduit through which the variegating material is fed through the one or more second openings into the chambers is disposed perpendicularly at the point of entry to the chamber(s) to the axis of at least one of the one or more conduits through which the base frozen confection is fed to the base frozen confection opening into the chambers at the point of entry to the chamber(s), wherein the first of the at least two static mixer baffles beginning at from 0 to 12 mm of the bottom of the variegating material opening or openings and the baffles of the static mixer are helical.
A display device comprising: a lower substrate including a sub-pixel area; a first light-emitting structure in the sub-pixel area of the lower substrate, the first light-emitting structure defined by a sequential stack of a first lower electrode , a first light-emitting layer and a first upper electrode , the first light-emitting structure inclined with respect to the lower substrate; and a second light-emitting structure in the sub-pixel area of the lower substrate, the second light-emitting structure defined by a sequential stack of a second lower electrode spaced apart from the first light-emitting structure, a second light-emitting layer and a second upper electrode , the second light-emitting structure inclined with respect to the lower substrate, wherein the first light-emitting layer is connected to the second light-emitting layer, and the first upper electrode is connected to the second upper electrode, wherein the first light-emitting structure and the second light-emitting structure form a well, and the first light-emitting structure is slanted in a first direction with respect to the lower substrate and the second light-emitting structure is slanted in an opposite direction with respect to the lower substrate . a lower substrate including a sub-pixel area; a first light-emitting structure in the sub-pixel area of the lower substrate, the first light-emitting structure defined by a sequential stack of a first lower electrode , a first light-emitting layer and a first upper electrode , the first light-emitting structure inclined with respect to the lower substrate; and a second light-emitting structure in the sub-pixel area of the lower substrate, the second light-emitting structure defined by a sequential stack of a second lower electrode spaced apart from the first light-emitting structure, a second light-emitting layer and a second upper electrode , the second light-emitting structure inclined with respect to the lower substrate, wherein the first light-emitting layer is connected to the second light-emitting layer, and the first upper electrode is connected to the second upper electrode, wherein the first light-emitting structure and the second light-emitting structure form a well, and the first light-emitting structure is slanted in a first direction with respect to the lower substrate and the second light-emitting structure is slanted in an opposite direction with respect to the lower substrate .
A method for controlling a vector thruster of a marine vehicle at least partially submerged in a liquid comprising a body and the vector thruster , the vector thruster comprising two collective and cyclic pitch counter-rotating propellers (AV, AR), each propeller (AV, AR) comprising blades intended to turn about a rotation axis of said propeller (AV, AR) that is fixed relative to the body of the vehicle , the method comprising a step of low-speed maneuver controlling, during which the vector thruster is controlled in such a way that each propeller (AV, AR) generates a flow directed toward the flow generated by the other propeller and reaching the flow generated by the other propeller, wherein the distance between the propellers (AV, AR) lies between a non-zero threshold distance and triple the diameter of the larger of the two propellers (AV, AR)
A method of providing power for an electrosurgical instrument comprising: generating , with a power provider , a non-sinusoidal driving voltage having a driving frequency; receiving the non-sinusoidal driving voltage at a series LC circuit , the series LC circuit having a resonant frequency twice the driving frequency, whereby the series LC circuit presents an impedance to limit current and stores energy during each resonant cycle of the series LC circuit; and converting the non-sinusoidal driving voltage, with the series LC circuit, to a quasi-sinusoidal current for powering an electrosurgical instrument, wherein the step of converting comprises: during each resonant cycle of the series LC circuit, discharging substantially all of the energy stored in the series LC circuit. generating , with a power provider , a non-sinusoidal driving voltage having a driving frequency; receiving the non-sinusoidal driving voltage at a series LC circuit , the series LC circuit having a resonant frequency twice the driving frequency, whereby the series LC circuit presents an impedance to limit current and stores energy during each resonant cycle of the series LC circuit; and converting the non-sinusoidal driving voltage, with the series LC circuit, to a quasi-sinusoidal current for powering an electrosurgical instrument, wherein the step of converting comprises: during each resonant cycle of the series LC circuit, discharging substantially all of the energy stored in the series LC circuit.
A use of at least one dendrimer-type compound of generation (n) or a salt thereof comprising: - a central unit of valency 3 represented by the formula (I): - (n-1) inner generation layers consisting of repeat units arranged in a tree structure around the central unit and represented by the formula (II): - an outer layer consisting of units represented by the formula (III): said units of formula (III) being bonded to said central unit when n is 1 or to the inner layer farthest from said central unit when n is different from 1; and where n is an integer comprised between 1 and 12, for trapping at least one chemical compound, preferably a pollutant, contained in a liquid sample. - a central unit of valency 3 represented by the formula (I): - (n-1) inner generation layers consisting of repeat units arranged in a tree structure around the central unit and represented by the formula (II): - an outer layer consisting of units represented by the formula (III): said units of formula (III) being bonded to said central unit when n is 1 or to the inner layer farthest from said central unit when n is different from 1; and where n is an integer comprised between 1 and 12, for trapping at least one chemical compound, preferably a pollutant, contained in a liquid sample. said units of formula (III) being bonded to said central unit when n is 1 or to the inner layer farthest from said central unit when n is different from 1; and where n is an integer comprised between 1 and 12, for trapping at least one chemical compound, preferably a pollutant, contained in a liquid sample.
Press for pressing a material , having the following features: a roller ; a die , which is formed in such a way that the material can be pressed between the roller and the die ; a bearing unit , which receives the roller and is adapted to support the roller , the bearing unit being designed as a self-retaining two-row or multi-row bearing unit that can be pre-assembled; characterized in that the bearing unit is adapted to work at an operating temperature between 110°C and 140°C, in that the bearing unit additionally has an intermediate ring or a coating between an outer ring of the bearing unit and the roller , or an intermediate ring or coating between an inner ring of the bearing unit and a component of the press , with respect to which the roller is supported, and in that the intermediate ring or the coating has an elastomer or bronze. a roller ; a die , which is formed in such a way that the material can be pressed between the roller and the die ; a bearing unit , which receives the roller and is adapted to support the roller , the bearing unit being designed as a self-retaining two-row or multi-row bearing unit that can be pre-assembled; characterized in that the bearing unit is adapted to work at an operating temperature between 110°C and 140°C, in that the bearing unit additionally has an intermediate ring or a coating between an outer ring of the bearing unit and the roller , or an intermediate ring or coating between an inner ring of the bearing unit and a component of the press , with respect to which the roller is supported, and in that the intermediate ring or the coating has an elastomer or bronze.
Workpiece carrier for switching and control system construction, wherein the workpiece carrier has a movable base frame which stands on rollers and on which a holding frame which spans a mounting plane for a workpiece is mounted in a height-adjustable manner and so as to be pivotable about a horizontal axis (x), wherein the holding frame has at least two holding arms which are pivotable about an axis (a) at their proximal end (6.1) in relation to the base frame and have a fastening means for a workpiece at their distal end (6.2) opposite the proximal end (6.1), characterized in that the axis (a) about which the holding arms are pivotable extends perpendicularly to the mounting plane.
A heat exchanger with a heat exchanger tank structure in which a plurality of fins and a plurality of tubes are alternately placed in parallel to form a core , small tanks are arranged at upper and lower ends of the core , wherein both ends of each of the tubes are inserted into the small tanks to structure a unit , a plurality of such units in a same shape are stacked in parallel in a thickness direction of the unit , a heat exchange medium is supplied from a header tank to each of the tubes of each of the cores via each of the small tanks at the upper ends of the cores , and an air flow is led in such a manner to cross a flat surface of each of the cores , wherein each of the small tanks and the header tank connecting to each of the small tanks at the upper ends of the cores are configured from a pipe member, each of the small tanks is formed with an opening at a position on an opposite side of the core , for each pair of adjacent units , the opening of a first small tank of the pair and the opening of a second small tank of the pair that are adjacent to each other are arranged at different positions in a longitudinal direction of the small tanks , and a plurality of connection openings is formed in the header tank to match each of the openings , and each of the connection openings of the header tank and the opening of each of the small tanks at the upper ends of the cores are connected with each other via a short pipe .
A three-dimensional printing on-line monitoring method, characterized by using a printing parameter-controllable three-dimensional printing device and a three-dimensional high-precision nondestructive imaging system, wherein the printing parameter-controllable three-dimensional printing device comprises a personal computer or PC , a central control module , a print platform , printhead(s) , an X/Y/Z three-axis mobile module and a printhead mounting arm , and the three-dimensional high-precision nondestructive imaging system comprises a three-dimensional high-precision nondestructive imaging host and a sample detection probe , the sample detection probe comprising a machine vision imaging module and a high-precision nondestructive detection module ; wherein the three-dimensional printing on-line monitoring method comprises: Step 1: integrating the three-dimensional high-precision nondestructive imaging system into the printing parameter-controllable three-dimensional printing device to real-time on-line monitor three-dimensional printing, and making the machine vision imaging module and the high-precision nondestructive detection module to collaboratively perform visual imaging, to achieve rapid positioning of transverse range for monitoring in a printing process; Step 2: achieving full-longitudinal-depth imaging monitoring of the whole printing process by longitudinal-depth segmented scanning of a printing solidified layer, based on a longitudinal automatic splicing algorithm, and guiding printing parameter optimization and control of a next depth-increased segment by using in real time a result feedback of the longitudinal-depth segmented scanning, so as to perform synchronous high-precision nondestructive imaging on-line monitoring of the printing; and Step 3: acquiring a three-dimensional high-resolution global image of an internal structure of a printed product, when completing manufacturing of the printed product. Step 1: integrating the three-dimensional high-precision nondestructive imaging system into the printing parameter-controllable three-dimensional printing device to real-time on-line monitor three-dimensional printing, and making the machine vision imaging module and the high-precision nondestructive detection module to collaboratively perform visual imaging, to achieve rapid positioning of transverse range for monitoring in a printing process; Step 2: achieving full-longitudinal-depth imaging monitoring of the whole printing process by longitudinal-depth segmented scanning of a printing solidified layer, based on a longitudinal automatic splicing algorithm, and guiding printing parameter optimization and control of a next depth-increased segment by using in real time a result feedback of the longitudinal-depth segmented scanning, so as to perform synchronous high-precision nondestructive imaging on-line monitoring of the printing; and Step 3: acquiring a three-dimensional high-resolution global image of an internal structure of a printed product, when completing manufacturing of the printed product.
Primary support-pylon box structure for an aircraft propulsion unit (GP), said box structure having - a first half-shell having a first free edge ; and - a second half-shell having a second free edge ; said first half-shell and second half-shell being assembled together by joining the first free edge and the second free edge along a joint plane so as to form said box, the box structure having a lower spar , an upper spar , and two side walls , the two side walls being substantially orthogonal to the lower spar , the joint plane being either orthogonal to the lower spar , splitting it longitudinally in two so as to divide the box into two symmetric parts, or orthogonal to the side walls , each of which it divides into two parts . - a first half-shell having a first free edge ; and - a second half-shell having a second free edge ; said first half-shell and second half-shell being assembled together by joining the first free edge and the second free edge along a joint plane so as to form said box, the box structure having a lower spar , an upper spar , and two side walls , the two side walls being substantially orthogonal to the lower spar , the joint plane being either orthogonal to the lower spar , splitting it longitudinally in two so as to divide the box into two symmetric parts, or orthogonal to the side walls , each of which it divides into two parts .
A Radio Frequency Identification, RFID, tag , comprising: an antenna port to receive an input AC signal; and a limiter including a clamping device configured to limit a voltage of the input AC signal to a preconfigured limit, wherein the limiter is configured to provide a stable ground reference for the clamping device; characterized in that the clamping device includes a first transistor and a second transistor coupled between a first terminal and a second terminal of the antenna port, wherein the first transistor and the second transistor are of type NMOS, and wherein the drain of the first transistor and the source of the second transistor are connected to the first terminal and the source of the first terminal and the drain of the second transistor are connected to the second terminal; the RFID tag further including a third transistor coupled between the first terminal and a ground, and a fourth transistor coupled between the second terminal and said ground, wherein the gates of the first transistor, second transistor, third transistor and fourth transistor are driven by the same gate voltage. an antenna port to receive an input AC signal; and a limiter including a clamping device configured to limit a voltage of the input AC signal to a preconfigured limit, wherein the limiter is configured to provide a stable ground reference for the clamping device; characterized in that the clamping device includes a first transistor and a second transistor coupled between a first terminal and a second terminal of the antenna port, wherein the first transistor and the second transistor are of type NMOS, and wherein the drain of the first transistor and the source of the second transistor are connected to the first terminal and the source of the first terminal and the drain of the second transistor are connected to the second terminal; the RFID tag further including a third transistor coupled between the first terminal and a ground, and a fourth transistor coupled between the second terminal and said ground, wherein the gates of the first transistor, second transistor, third transistor and fourth transistor are driven by the same gate voltage.
A mobile communication terminal device comprising: a specifying unit that is configured to specify a voice call partner; an outgoing call control unit that is configured to call the specified partner; a measurement unit that is configured to measure an orientation or a displacement of the communication terminal device; and a proximity detection unit that is configured to detect when a head area of a user (U) is near the communication terminal device, characterised in that , in the case where the head area is detected as being near, the specifying unit is configured to specify the partner on the basis of the orientation or displacement measured before the head area was detected as being near and a tilting orientation measured while the head area was detected as being near. a specifying unit that is configured to specify a voice call partner; an outgoing call control unit that is configured to call the specified partner; a measurement unit that is configured to measure an orientation or a displacement of the communication terminal device; and a proximity detection unit that is configured to detect when a head area of a user (U) is near the communication terminal device, characterised in that , in the case where the head area is detected as being near, the specifying unit is configured to specify the partner on the basis of the orientation or displacement measured before the head area was detected as being near and a tilting orientation measured while the head area was detected as being near.
Transport device for carrying and moving objects from one location to another, comprising: - a chassis and - at least four motor-driven omnidirectional wheels arranged on the chassis , - whereas the chassis is configured to adapt the wheelbase and the track gauge of the motor-driven omnidirectional wheels according to the size of the object by movement of at least one motor-driven omnidirectional wheel . - a chassis and - at least four motor-driven omnidirectional wheels arranged on the chassis , - whereas the chassis is configured to adapt the wheelbase and the track gauge of the motor-driven omnidirectional wheels according to the size of the object by movement of at least one motor-driven omnidirectional wheel .