mhurhangee/patent-ind-claim-en huggingface dataset:
A water amusement ride comprising at least one vehicle comprising means for accommodating at least one passenger, a container for storing water having an opening to define a water surface (S), said vehicle being movable between a raised position (RP) with respect to the water surface (S), and a stop position (SP), in which at least part of the vehicle is submerged in the water, further comprising lifting means to move said vehicle from the stop position to the raised position, and wherein the vehicle moved from the raised position (RP) towards said stop position (SP) is decelerated by the contact with water in said container to reach said stop position (SP), wherein said vehicle is movable back and forth between said raised position (RP) and said stop position (SP).
A method for transmitting a data frame, applied to a Long Term Evolution unlicensed LTE-U system, the method comprising: determining , by a first device, a to-be-transmitted data frame, wherein the to-be-transmitted data frame carries an identifier of an operator to which the first device belongs; and transmitting , by the first device, the to-be-transmitted data frame to a second device; wherein the to-be-transmitted data frame further carries an identifier of the to-be-transmitted data frame and a sequence number of the to-be-transmitted data frame in a transmission pattern, and the transmission pattern comprises a quantity and sequence numbers of data frames in one transmission period; wherein the to-be-transmitted data frame further carries a synchronization signal, wherein the synchronization signal comprises a primary synchronization signal PSS and a secondary synchronization signal SSS. determining , by a first device, a to-be-transmitted data frame, wherein the to-be-transmitted data frame carries an identifier of an operator to which the first device belongs; and transmitting , by the first device, the to-be-transmitted data frame to a second device; wherein the to-be-transmitted data frame further carries an identifier of the to-be-transmitted data frame and a sequence number of the to-be-transmitted data frame in a transmission pattern, and the transmission pattern comprises a quantity and sequence numbers of data frames in one transmission period; wherein the to-be-transmitted data frame further carries a synchronization signal, wherein the synchronization signal comprises a primary synchronization signal PSS and a secondary synchronization signal SSS.
An operating apparatus disposed on a surface of a detection panel that is configured to detect a change in electrostatic capacitance, the operating apparatus comprising: a supporter on the surface of the detection panel ; an operation body supported by the supporter so as to be movable in a pressing direction along a reference axis (O) orthogonal to the surface of the detection panel and a rotational direction (R) about the reference axis (O), wherein a hole is provided from the supporter to the operation body , and the reference axis is located in the hole , a press detection conductor facing the surface of the detection panel , the press detection conductor being configured to move in the pressing direction along the reference axis (O); and a rotation detecting conductor facing the surface of the detection panel , the rotation detecting conductor being configured to move in the rotational direction (R) about the reference axis , the press detection conductor and the rotation detecting conductor being arranged around the hole , wherein the press detection conductor is moved in the pressing direction by the pressing operation of the operation body , and the rotation detecting conductor is moved in the rotational direction (R) by the rotating operation of the operation body , characterized in that the operation body has a ring shape having a circular outer rim about the reference axis (O) and a circular inner rim about the reference axis (O), and wherein the supporter , the rotation detecting conductor , and the press detection conductor are located between the outer rim and the inner rim. a supporter on the surface of the detection panel ; an operation body supported by the supporter so as to be movable in a pressing direction along a reference axis (O) orthogonal to the surface of the detection panel and a rotational direction (R) about the reference axis (O), wherein a hole is provided from the supporter to the operation body , and the reference axis is located in the hole , a press detection conductor facing the surface of the detection panel , the press detection conductor being configured to move in the pressing direction along the reference axis (O); and a rotation detecting conductor facing the surface of the detection panel , the rotation detecting conductor being configured to move in the rotational direction (R) about the reference axis , the press detection conductor and the rotation detecting conductor being arranged around the hole , wherein the press detection conductor is moved in the pressing direction by the pressing operation of the operation body , and the rotation detecting conductor is moved in the rotational direction (R) by the rotating operation of the operation body , characterized in that the operation body has a ring shape having a circular outer rim about the reference axis (O) and a circular inner rim about the reference axis (O), and wherein the supporter , the rotation detecting conductor , and the press detection conductor are located between the outer rim and the inner rim.
Electrical connector for airbag restraint systems, comprising an elongated housing aligned on a longitudinal axis (X) corresponding to a mating direction of the connector , surrounding at least one elongated terminal having a contact surface , a terminal support device , attached on the elongated housing and movable longitudinally along the elongated housing from an open position (O) to a support position (C),whereby the terminal support device comprises a support protrusion protruding perpendicular to the longitudinal axis (X) inward the elongated housing and increases the contact pressure of the contact surface, to a counter contact element , when the connector is mated to a counter connector and the terminal support device is in the support position, wherein the support protrusion comprises a flat activation surface for increasing said contact pressure and being aligned to the longitudinal axis (X), wherein the elongated terminal is aligned along the longitudinal axis (X) of the elongated housing , wherein the elongated terminal comprises a straight portion and a bend portion , wherein the flat activation surface is arranged opposite the straight portion when the terminal support device is in the open position (O) and wherein the flat activation surface contacts the bend portion when the terminal support device is in the support position (C).
A fluidization promoter useful for dehydrogenation, the fluidization promoter comprising: from 0.1 weight percent to 10 weight percent gallium based on the total weight of the fluidization promoter; from 5 parts per million to 500 parts per million platinum based on the total weight of the fluidization promoter; less than 5 weight percent of alkali metal or alkaline earth metal based on the total weight of the fluidization promoter; and a support material, wherein a median particle size of the fluidization promoter is from 20 μm (microns) to 50 μm (microns). from 0.1 weight percent to 10 weight percent gallium based on the total weight of the fluidization promoter; from 5 parts per million to 500 parts per million platinum based on the total weight of the fluidization promoter; less than 5 weight percent of alkali metal or alkaline earth metal based on the total weight of the fluidization promoter; and a support material, wherein a median particle size of the fluidization promoter is from 20 μm (microns) to 50 μm (microns).
A method for determination of the interval estimation of the velocity magnitude of a railway vehicle using GNSS in the railway environment, during which a receiver on the railway vehicle monitors signals from GNSS satellites wherein initially, (step 1) an estimate of the vehicle velocity vector, including the confidence ellipsoid are determined in the ECEF WGS84 coordinate system, and subsequently (step 3) said estimate is transformed into the local END coordinate system; furthermore, (step 4) from such transformed velocity vector estimate, a 2D estimate of the velocity vector in the horizontal plane is determined, from which (step 6) a confidence interval of 〈 v̂ EN,min , v̂ EN,max 〉 representing the estimate of the horizontal velocity magnitude of the vehicle is determined, and subsequently, (step 7) an estimate ν̂ U,max of the maximum possible magnitude of the vertical vehicle velocity is determined from the maximum possible longitudinal slope β max of the track and the design speed of the vehicle or the estimate of the horizontal velocity magnitude of the vehicle, after which (step 8) the estimates of horizontal and vertical velocity magnitudes are combined into the final interval estimate of the total magnitude of the railway vehicle velocity, which is given by the relation of V ^ C = 〈 v ^ EN , min , v ^ EN , max 2 + v ^ U , max 2 〉 , and thus obtained estimate is stored into the memory and/or shown on the display.
A power filter arrangement, comprising: a toroidal inductor package, having: a toroidal inductor ; and a resistive element disposed about an outer circumference of the toroidal inductor and joined to the toroidal inductor, the resistive element being wound about the outer circumference of the toroidal inductor and having a first resistive pattern, and characterized in that the first resistive pattern is configured as a resistive winding having an even number of total turns. a toroidal inductor ; and a resistive element disposed about an outer circumference of the toroidal inductor and joined to the toroidal inductor, the resistive element being wound about the outer circumference of the toroidal inductor and having a first resistive pattern, and characterized in that the first resistive pattern is configured as a resistive winding having an even number of total turns.
A method for the manufacture of a microfluidic valve, wherein said method comprises performing the following steps: - arranging a substrate configuring a structural portion of the valve, wherein said substrate comprises at least one mechanically inert material to one or more physicochemical properties over time; - printing a succession of one or more filaments of a mechanically responsive material to one or more of said physicochemical properties over time, wherein said mechanically responsive material comprises at least one liquid crystal polymer (LCP), and wherein the succession of filaments configures a functional portion of the valve; characterized in that said method comprises an additional step of arranging the succession of filaments of the mechanically responsive material on the substrate of a mechanically inert material by applying an anti-adhesion treatment on one or more interfaces of said filaments and the substrate ; wherein the substrate of a mechanically inert material and the filaments of the mechanically responsive material at least partially configure a fluid flow rate through the valve, wherein the succession of filaments of the mechanically responsive material is arranged, in the mentioned fluid flow rate , such that the variation in one or more of the physicochemical parameters causes a disruption in the molecular order of the LCP, contracting or expanding the material along a longitudinal or transversal direction of the filaments , and leading to an increase or reduction of the fluid flow rate . - arranging a substrate configuring a structural portion of the valve, wherein said substrate comprises at least one mechanically inert material to one or more physicochemical properties over time; - printing a succession of one or more filaments of a mechanically responsive material to one or more of said physicochemical properties over time, wherein said mechanically responsive material comprises at least one liquid crystal polymer (LCP), and wherein the succession of filaments configures a functional portion of the valve; characterized in that said method comprises an additional step of arranging the succession of filaments of the mechanically responsive material on the substrate of a mechanically inert material by applying an anti-adhesion treatment on one or more interfaces of said filaments and the substrate ; wherein the substrate of a mechanically inert material and the filaments of the mechanically responsive material at least partially configure a fluid flow rate through the valve, wherein the succession of filaments of the mechanically responsive material is arranged, in the mentioned fluid flow rate , such that the variation in one or more of the physicochemical parameters causes a disruption in the molecular order of the LCP, contracting or expanding the material along a longitudinal or transversal direction of the filaments , and leading to an increase or reduction of the fluid flow rate .
Suction module for a hand machine tool with a motor-driven impeller , an intake duct for drawing in dust-laden air, a collection container for dust, characterised by a flow sensor , which has a sensor surface made of plastic, which is arranged in the intake duct , and by an electric field meter facing towards the sensor surface to determine the electrostatic field strength on the sensor surface and by an evaluation unit to determine a flow amount of dust-laden air based on the electrostatic field strength determined and by a warning device , which emits a warning signal in the case of a fall in the flow amount, if the fall occurs with a rate of change that is greater than a preset rate of change.
A sensor module for providing a sensor module signal (OUT) comprising information representative of a physical quantity measured by means of the sensor module , the sensor module comprising - a first sensor (12-1) for providing a first sensor signal (SS1) representative of the physical quantity, - a first processing device (20-1) for processing the first sensor signal (SS1) to provide a processed first sensor signal (SS1'), - a second sensor (12-2) for providing a second sensor signal (SS2) representative of the physical quantity, - a second processing device (20-2) for processing the second sensor signal (SS2) to provide a processed second sensor signal (SS2'), - a control device for generating the sensor module signal (OUT) based on the processed first sensor signal (SS1') and the processed second sensor signal (SS2'), - a checking device for checking the sensor module signal (OUT), the processed first sensor signal (SS1') and the processed second sensor signal (SS2') for coherency by checking whether the sensor module signal (OUT) has plausibility in view of the processed first and second sensor signals (SS1', SS2') and thusly checking an error-free transmission of the first and second processed sensor signals (SS1', SS2') from the first and second processing devices (20,1, 20-2) to the control device and checking an error-free function of the control device , and for providing a check result signal (EF) representative of a result of the check. - a first sensor (12-1) for providing a first sensor signal (SS1) representative of the physical quantity, - a first processing device (20-1) for processing the first sensor signal (SS1) to provide a processed first sensor signal (SS1'), - a second sensor (12-2) for providing a second sensor signal (SS2) representative of the physical quantity, - a second processing device (20-2) for processing the second sensor signal (SS2) to provide a processed second sensor signal (SS2'), - a control device for generating the sensor module signal (OUT) based on the processed first sensor signal (SS1') and the processed second sensor signal (SS2'), - a checking device for checking the sensor module signal (OUT), the processed first sensor signal (SS1') and the processed second sensor signal (SS2') for coherency by checking whether the sensor module signal (OUT) has plausibility in view of the processed first and second sensor signals (SS1', SS2') and thusly checking an error-free transmission of the first and second processed sensor signals (SS1', SS2') from the first and second processing devices (20,1, 20-2) to the control device and checking an error-free function of the control device , and for providing a check result signal (EF) representative of a result of the check.
A fuel tank comprising: a lower panel made of steel and an upper panel made of steel; at least one pillar made of steel which is disposed in an interior space (V) formed by the lower panel and the upper panel facing each other and of which a first end portion is fixed to the lower panel and a second end portion is fixed to the upper panel in a state where the second end portion is disposed in a hole formed in the upper panel ; and a first nut which is made of steel and is fixed to an inner surface of the lower panel and to which the first end portion of the pillar is fitted. a lower panel made of steel and an upper panel made of steel; at least one pillar made of steel which is disposed in an interior space (V) formed by the lower panel and the upper panel facing each other and of which a first end portion is fixed to the lower panel and a second end portion is fixed to the upper panel in a state where the second end portion is disposed in a hole formed in the upper panel ; and a first nut which is made of steel and is fixed to an inner surface of the lower panel and to which the first end portion of the pillar is fitted.
An injection device trainer for training a user to use an injection device, the injection device trainer comprising: a body portion ; an actuator positioned towards a proximal end of the body portion , the actuator moveable from a proximal position to a distal position; a shield positioned towards a distal end of the body portion , the shield moveable between: an initial position; a retracted position that is more proximal relative to the body portion than the initial position; and an extended position that is more distal relative to the body portion than the initial position; and a locking member adapted to be rotatable between a first orientation in which the locking member resists movement of the actuator from the proximal position to the distal position; and a second orientation in which the locking member permits the actuator to move from the proximal position to the distal position; wherein the first orientation of the locking member is configured to hold the shield in the initial position such that the shield is prevented from moving from the initial position to the extended position, and permits movement of the shield from the initial position to the retracted position; wherein the shield is configured to contact with the locking member when moving from the initial position to the retracted position in order to move the locking member from the first orientation to the second orientation; and wherein movement of the actuator by a first distance towards the distal position is configured to unlock the shield from the locking member such that the shield is allowed to move towards the extended position. a body portion ; an actuator positioned towards a proximal end of the body portion , the actuator moveable from a proximal position to a distal position; a shield positioned towards a distal end of the body portion , the shield moveable between: an initial position; a retracted position that is more proximal relative to the body portion than the initial position; and an extended position that is more distal relative to the body portion than the initial position; and a locking member adapted to be rotatable between a first orientation in which the locking member resists movement of the actuator from the proximal position to the distal position; and a second orientation in which the locking member permits the actuator to move from the proximal position to the distal position; wherein the first orientation of the locking member is configured to hold the shield in the initial position such that the shield is prevented from moving from the initial position to the extended position, and permits movement of the shield from the initial position to the retracted position; wherein the shield is configured to contact with the locking member when moving from the initial position to the retracted position in order to move the locking member from the first orientation to the second orientation; and wherein movement of the actuator by a first distance towards the distal position is configured to unlock the shield from the locking member such that the shield is allowed to move towards the extended position.
A method for installing an application, comprising: acquiring application installation information by a first terminal , the application installation information comprises an application identifier of the application, each format of the application and a download address corresponding to each format; sending a user account and the application installation information to an account server by the first terminal ; receiving the user account and the application installation information and storing the user account and the application installation information in correspondence between user accounts and application installation information, by the account server; sending an acquisition request message to the account server by the second terminal , with the acquisition request message carrying the user account; acquiring the application installation information from the stored user account and the stored application installation information, according to the user account, by the account server; and receiving an acquisition response message sent by the account server by the second terminal , with the acquisition response message carrying the application installation information acquired by the account server; and installing a corresponding application according to the application installation information on the second terminal . acquiring application installation information by a first terminal , the application installation information comprises an application identifier of the application, each format of the application and a download address corresponding to each format; sending a user account and the application installation information to an account server by the first terminal ; receiving the user account and the application installation information and storing the user account and the application installation information in correspondence between user accounts and application installation information, by the account server; sending an acquisition request message to the account server by the second terminal , with the acquisition request message carrying the user account; acquiring the application installation information from the stored user account and the stored application installation information, according to the user account, by the account server; and receiving an acquisition response message sent by the account server by the second terminal , with the acquisition response message carrying the application installation information acquired by the account server; and installing a corresponding application according to the application installation information on the second terminal .