mhurhangee/patent-ind-claim-en huggingface dataset:
An adapter housing with a socket for mounting a power supply circuit waterproofly to an exterior wall of an appliance, wherein the exterior wall of the appliance has an opening for a plug to connect the socket, the adapter housing comprising: a front wall comprising a connecting area and a mounting area on the front wall , the mounting area being adapted to be attached to an inside surface of the exterior wall; a sealing element , which is non-detachably connected to the front wall , wherein the sealing element surrounds at least the connecting area and the mounting area on the front wall ; wherein the front wall is opening at the connecting area into a recess defining the socket for receiving the plug; and wherein the front wall further enables a sealed mounting to the exterior wall of the appliance at the mounting area ; a side wall , which together with the front wall , defines a compartment for receiving a power supply circuit, and a contact pin extending into the socket and extending into the compartment enabling an electric connection between the socket and the compartment, wherein the sealing element comprises a sealing lip , and wherein the sealing lip surrounds at least the connecting area and the mounting area on the front wall such that, when mounted to the exterior wall of the appliance, it seals the compartment waterproofly from an opening of the exterior wall . an exterior wall of an appliance, wherein the exterior wall of the appliance has an opening for a plug to connect the socket, the adapter housing comprising: a front wall comprising a connecting area and a mounting area on the front wall , the mounting area being adapted to be attached to an inside surface of the exterior wall; a sealing element , which is non-detachably connected to the front wall , a front wall comprising a connecting area and a mounting area on the front wall , the mounting area being adapted to be attached to an inside surface of the exterior wall; a sealing element , which is non-detachably connected to the front wall , wherein the sealing element surrounds at least the connecting area and the mounting area on the front wall ; wherein the front wall is opening at the connecting area into a recess defining the socket for receiving the plug; and wherein the front wall further enables a sealed mounting to the exterior wall of the appliance at the mounting area ; a side wall , which together with the front wall , defines a compartment for receiving a power supply circuit, and a contact pin extending into the socket and extending into the compartment enabling an electric connection between the socket and the compartment, wherein the sealing element comprises a sealing lip , and wherein the sealing lip surrounds at least the connecting area and the mounting area on the front wall such that, when mounted to the exterior wall of the appliance, it seals the compartment waterproofly from an opening of the exterior wall .
A method of receipt status reporting in a communication device , characterized by configuring (S1) said communication device for periodic receipt status reporting by associating a first status report type with a value of a first reporting periodicity parameter and associating a second status report type with a value of a second reporting periodicity parameter, said first status report type being different from said second status report type and said first reporting periodicity parameter being different from said second reporting periodicity parameter, and periodically (S2) sending receipt status reports of said first type according to said associated value of said first reporting periodicity parameter and receipt status reports of said second type according to said associated value of said second reporting periodicity parameter.
An electroporation device comprising: a measurement unit being configured to provide multiple outputs of one or more resistance measurement voltage pulses for measuring a resistance of skin of a user at a predetermined interval; an output unit being configured to provide an output of one or more electroporation voltage pulses to the skin of the user based on the resistance of the skin of the user per each output of the one or more resistance measurement voltage pulses, a first electrode having a shape of a tape or patch; and a second electrode having a shape of a tape or patch, wherein: the measurement unit is configured to output the resistance measurement voltage pulses having a voltage lower than a voltage of the electroporation voltage pulses the measurement unit and the output unit are configured to output the resistance measurement voltage pulses and the electroporation voltage pulses on the skin of the user via the first electrode configured to be located on a position of the skin of the user where the active substance is introduced, and the second electrode is configured to be located located on a position of the skin of the user different from the first electrode. a measurement unit being configured to provide multiple outputs of one or more resistance measurement voltage pulses for measuring a resistance of skin of a user at a predetermined interval; an output unit being configured to provide an output of one or more electroporation voltage pulses to the skin of the user based on the resistance of the skin of the user per each output of the one or more resistance measurement voltage pulses, a first electrode having a shape of a tape or patch; and a second electrode having a shape of a tape or patch, wherein: the measurement unit is configured to output the resistance measurement voltage pulses having a voltage lower than a voltage of the electroporation voltage pulses the measurement unit and the output unit are configured to output the resistance measurement voltage pulses and the electroporation voltage pulses on the skin of the user via the first electrode configured to be located on a position of the skin of the user where the active substance is introduced, and the second electrode is configured to be located located on a position of the skin of the user different from the first electrode. the measurement unit is configured to output the resistance measurement voltage pulses having a voltage lower than a voltage of the electroporation voltage pulses the measurement unit and the output unit are configured to output the resistance measurement voltage pulses and the electroporation voltage pulses on the skin of the user via the first electrode configured to be located on a position of the skin of the user where the active substance is introduced, and the second electrode is configured to be located located on a position of the skin of the user different from the first electrode.
A method of transmitting a signal for vehicle-to-everything, V2X, communication in a wireless communication system, the method performed by a vehicle supporting a first radio access technology, RAT, the method comprising: generating a first signal based on the first RAT, the first signal including a message related to occurrence of an event; if the message is related to a road safety service in V2X, duplicating the message to a second signal based on a second RAT; and if the message is related to the road safety service in V2X, transmitting, to a second vehicle supporting the second RAT, the second signal in a radio resource area used by the first RAT and in a transmission format corresponding to the second RAT, wherein the second signal comprises the message, and wherein the first RAT is 5 th generation new radio access technology, 5G New RAT, wireless communication, and the second RAT is 4 th generation long term evolution, 4G LTE, wireless communication. generating a first signal based on the first RAT, the first signal including a message related to occurrence of an event; if the message is related to a road safety service in V2X, duplicating the message to a second signal based on a second RAT; and if the message is related to the road safety service in V2X, transmitting, to a second vehicle supporting the second RAT, the second signal in a radio resource area used by the first RAT and in a transmission format corresponding to the second RAT, wherein the second signal comprises the message, and wherein the first RAT is 5 th generation new radio access technology, 5G New RAT, wireless communication, and the second RAT is 4 th generation long term evolution, 4G LTE, wireless communication.
Fitting for a window, a door or the like comprising a tiltable and slidable leaf, a scissor-type extension mechanism of the fitting being connectable at one end at least indirectly to the leaf and at the other end at least indirectly to a slider and/or carriage, and the fitting comprising a control part which has a control contour in or on which a control pin of the scissor-type extension mechanism is guided, the control contour comprising a first control portion and a second control portion , the control pin being moved in or on the first control portion for tilting open the leaf and in or on the second control portion for sliding open the leaf and characterized in that the control part has a latch which, in a blocking position, limits or prevents the movement of the control pin along the control contour , and the latch is movable by an actuating element of the fitting , which actuating element is at least indirectly rotatably connected to the scissor-type extension mechanism , into a release position in which the latch does not limit or prevent the movement of the control pin , the latch being arranged in the blocking position between the first control portion and the second control portion . a scissor-type extension mechanism of the fitting being connectable at one end at least indirectly to the leaf and at the other end at least indirectly to a slider and/or carriage, and the fitting comprising a control part which has a control contour in or on which a control pin of the scissor-type extension mechanism is guided, the control contour comprising a first control portion and a second control portion , the control pin being moved in or on the first control portion for tilting open the leaf and in or on the second control portion for sliding open the leaf and characterized in that the control part has a latch which, in a blocking position, limits or prevents the movement of the control pin along the control contour , and the latch is movable by an actuating element of the fitting , which actuating element is at least indirectly rotatably connected to the scissor-type extension mechanism , into a release position in which the latch does not limit or prevent the movement of the control pin , the latch being arranged in the blocking position between the first control portion and the second control portion .
An apparatus for immersion-based preparation of a perovskite thin film, comprising a sealed cavity , wherein the sealed cavity is internally provided with at least one semi-enclosed reactor device , the semi-enclosed reactor device comprises a lower heating and sublimation device and an upper heating station , a container with an opening facing upward is provided at the top of the lower heating and sublimation device, the container contains a reactant precursor, a substrate frame is provided directly above the container the substrate frame covers an opening of the container, a substrate frame support platform is provided at a side surface of the container, the substrate frame is disposed on the substrate frame support platform, a substrate to be deposited is provided at a lower bottom surface of the substrate frame, the substrate is located directly above the container, one surface of the substrate to be deposited of directly faces the reactant precursor in the container, the upper heating station is disposed on the substrate frame to heat the substrate, and the reactant precursor is evaporated and deposited onto the surface of the substrate; and an vacuum pressure in the sealed cavity is controlled, and heating temperatures of the upper heating station and the lower heating and sublimation device are controlled.
A method for cleaning a connector of a hydrocarbon extraction system, the method comprising: inserting a flexible cable into a cleaning region of a channel of a component via a cleaning port , wherein the flexible cable comprises an axis and a tip , and a tip diameter of the tip is different than a diameter of the flexible cable ; rotating the flexible cable about the axis within the channel to interact the tip with deposits disposed within the cleaning region of the channel , wherein the tip is configured to loosen portions of the deposits by scraping, impacting, brushing, sweeping, pushing, pulling, abrading or any combination thereof; and moving the flexible cable within the cleaning region of the channel along a length of the channel ; and removing the portions of the deposits from the cleaning region of the channel via a second port . inserting a flexible cable into a cleaning region of a channel of a component via a cleaning port , wherein the flexible cable comprises an axis and a tip , and a tip diameter of the tip is different than a diameter of the flexible cable ; rotating the flexible cable about the axis within the channel to interact the tip with deposits disposed within the cleaning region of the channel , wherein the tip is configured to loosen portions of the deposits by scraping, impacting, brushing, sweeping, pushing, pulling, abrading or any combination thereof; and moving the flexible cable within the cleaning region of the channel along a length of the channel ; and removing the portions of the deposits from the cleaning region of the channel via a second port .
A method of making an insulated wall comprising: i) providing a first wall panel and a second wall panel , wherein each of the first wall panel and the second wall panel comprise a first concrete layer , a second concrete layer , a plurality of connectors and an intermediate space between the first concrete layer and the second concrete layer , wherein the connectors extend from the first concrete layer , through the intermediate space to the second concrete layer , wherein the plurality of connectors each comprise a fibre reinforced polymer; wherein the first wall panel and the second wall panel do not comprise an insulation material in the intermediate space ; ii) providing an insulation material ; iii) positioning the first wall panel next to the second wall panel , to form a cavity wall, wherein the intermediate space of the first wall panel and the intermediate space of the second wall panel form a combined intermediate space ; iv) adding the insulation material to the combined intermediate space to make an insulated wall, wherein the insulation material is substantially continuous between the first wall panel and the second wall panel , and wherein the insulation material is poured, or blown or injected into the combined intermediate space . i) providing a first wall panel and a second wall panel , wherein each of the first wall panel and the second wall panel comprise a first concrete layer , a second concrete layer , a plurality of connectors and an intermediate space between the first concrete layer and the second concrete layer , wherein the connectors extend from the first concrete layer , through the intermediate space to the second concrete layer , wherein the plurality of connectors each comprise a fibre reinforced polymer; wherein the first wall panel and the second wall panel do not comprise an insulation material in the intermediate space ; wherein each of the first wall panel and the second wall panel comprise a first concrete layer , a second concrete layer , a plurality of connectors and an intermediate space between the first concrete layer and the second concrete layer , wherein the connectors extend from the first concrete layer , through the intermediate space to the second concrete layer , wherein the plurality of connectors each comprise a fibre reinforced polymer; wherein the first wall panel and the second wall panel do not comprise an insulation material in the intermediate space ; ii) providing an insulation material ; iii) positioning the first wall panel next to the second wall panel , to form a cavity wall, wherein the intermediate space of the first wall panel and the intermediate space of the second wall panel form a combined intermediate space ; iv) adding the insulation material to the combined intermediate space to make an insulated wall, wherein the insulation material is substantially continuous between the first wall panel and the second wall panel , and wherein the insulation material is poured, or blown or injected into the combined intermediate space .
A heat exchanger , comprising: a tube comprising a first aluminum alloy; and a plurality of fins in thermally conductive contact with the exterior of said tube , said fins formed from a second aluminum alloy comprising a base alloy selected from the group consisting of AA1100, AA8006, and AA8011 and zinc or magnesium in an amount sufficient to provide said second aluminum alloy with an electrochemical solution potential of at least 10 mV more negative than the electrochemical solution potential of said first aluminum alloy, as determined according to ASTM G69. a tube comprising a first aluminum alloy; and a plurality of fins in thermally conductive contact with the exterior of said tube , said fins formed from a second aluminum alloy comprising a base alloy selected from the group consisting of AA1100, AA8006, and AA8011 and zinc or magnesium in an amount sufficient to provide said second aluminum alloy with an electrochemical solution potential of at least 10 mV more negative than the electrochemical solution potential of said first aluminum alloy, as determined according to ASTM G69.
Method for assembling conductive pins in a transfer device, each conductive pin being formed of at least one conductive segment and being intended to be electrically connected to at least one other conductive pin in order to form an electrical winding of a wound part of a rotary electric machine , the transfer device comprising a spindle body having an axis (Z) and a plurality of guide strips radially extending from the body, lateral spaces intended to house at least one conductive segment being defined between two adjacent guide strips, the conductive pins being split into several groups of pins, each group comprising at least one conductive pin, the method comprising: - at least one step of arranging at least one group of pins in a supply device ; - a plurality of supply steps , each supply step comprising transferring at least one group of pins from the supply device to a lateral space of the transfer device ; and - a plurality of rotation steps , each rotation step separating at least two supply steps from each other and comprising a rotation movement of the supply device and/or of the transfer device so as to allow a subsequent supply step, characterized in that the conductive pins are split into a first set of pins and a second set of pins, and in that only the conductive pins of the first set of pins are transferred from the supply device to the transfer device . - at least one step of arranging at least one group of pins in a supply device ; - a plurality of supply steps , each supply step comprising transferring at least one group of pins from the supply device to a lateral space of the transfer device ; and - a plurality of rotation steps , each rotation step separating at least two supply steps from each other and comprising a rotation movement of the supply device and/or of the transfer device so as to allow a subsequent supply step,
Operating device for an electrical device, having: - a flat control panel that is closed and at least regionally transparent, - lighting means underneath the control panel in order to shine through the control panel from below, - at least one holding magnet underneath the control panel, - a movable operating element that is arranged on the front side of the control panel so as to be able to move with respect to the lighting means and with respect to the at least one holding magnet, wherein the operating element is held magnetically, - at least one counter-magnet in or on the operating element for interacting with the at least one holding magnet through attractive magnetic force, such that the operating element, in the case of a movement for operation, is guided by an attractive magnetic force between the holding magnet and the counter-magnet , and such that the operating element is held on the control panel , - sensor means on or underneath the control panel , wherein the sensor means are designed to detect a position or a rotational position of the operating element , wherein the operating element is transparent in a direction that runs from the lighting means to the operating element, wherein, for this purpose, the operating element has a plurality of transparent regions that are partitioned against each other or separated from one another without transmitting light between each other, characterized in that the transparent regions of the operating element are formed by a multiplicity of light guides that are arranged in parallel and bearing against one another inside the operating element with an alignment parallel to one another. - a flat control panel that is closed and at least regionally transparent, - lighting means underneath the control panel in order to shine through the control panel from below, - at least one holding magnet underneath the control panel, - a movable operating element that is arranged on the front side of the control panel so as to be able to move with respect to the lighting means and with respect to the at least one holding magnet, wherein the operating element is held magnetically, - at least one counter-magnet in or on the operating element for interacting with the at least one holding magnet through attractive magnetic force, such that the operating element, in the case of a movement for operation, is guided by an attractive magnetic force between the holding magnet and the counter-magnet , and such that the operating element is held on the control panel , - sensor means on or underneath the control panel , wherein the sensor means are designed to detect a position or a rotational position of the operating element ,
Heating device for heating a fluid, comprising a heating element , a first dissipating element and a first casing having a substantially tubular shape which encloses said first dissipating element and, at least partially, said heating element , said first dissipating element , said heating element and said first casing being positioned so that said first dissipating element , which is substantially shaped as an helicoid and which is placed around said heating element , is in contact with said heating element and with said first casing so that they define a first channeling path for the fluid to be heated by means of the heat produced by the heating element , said dissipating element being built integrally, or in one piece, with said heating element , wherein said first casing is enclosed, at least partially, by a second casing , characterized in that said heating device comprises a second dissipating element , which is substantially shaped as an helicoid and which is placed around said first casing , is enclosed by said second casing and positioned so that it is in contact with said first casing and with said second casing so that they define a second channeling path for said fluid.