mhurhangee/patent-ind-claim-en huggingface dataset:
A touch screen unlocking method, comprising: displaying (S11) a screen unlocking interface on a touch screen wherein the screen unlocking interface comprises a password unlocking area for authenticating the user identity and a shortcut unlocking area; characterized by receiving (S12) an unlocking pattern input by a user through the screen unlocking interface, wherein the unlocking pattern comprises a password unlocking pattern input through the password unlocking area and a shortcut unlocking pattern input through the shortcut unlocking area; wherein the password unlocking pattern and the shortcut unlocking pattern received by the screen unlocking interface are successive and uninterrupted; unlocking (S14) the touch screen to enter a function interface corresponding to the shortcut unlocking pattern in response to the password unlocking pattern is consistent with a preset password unlocking pattern. displaying (S11) a screen unlocking interface on a touch screen wherein the screen unlocking interface comprises a password unlocking area for authenticating the user identity and a shortcut unlocking area; characterized by receiving (S12) an unlocking pattern input by a user through the screen unlocking interface, wherein the unlocking pattern comprises a password unlocking pattern input through the password unlocking area and a shortcut unlocking pattern input through the shortcut unlocking area; wherein the password unlocking pattern and the shortcut unlocking pattern received by the screen unlocking interface are successive and uninterrupted; unlocking (S14) the touch screen to enter a function interface corresponding to the shortcut unlocking pattern in response to the password unlocking pattern is consistent with a preset password unlocking pattern.
Method for producing a superconducting vanadium silicide V 3 Si on a silicon layer , this method comprising: - a stage of treatment of a face of the silicon layer in order to prepare it for a deposition of vanadium silicide, then - the deposition of a vanadium silicide layer on the prepared face of the silicon layer in order to obtain a stack of a vanadium silicide layer directly deposited on the silicon layer, then - an annealing of the stack which increases the critical temperature of the vanadium silicide deposited, characterized in that the treatment stage comprises an operation of incorporation of argon atoms in the silicon layer through the face of this silicon layer. - a stage of treatment of a face of the silicon layer in order to prepare it for a deposition of vanadium silicide, then - the deposition of a vanadium silicide layer on the prepared face of the silicon layer in order to obtain a stack of a vanadium silicide layer directly deposited on the silicon layer, then - an annealing of the stack which increases the critical temperature of the vanadium silicide deposited,
An authentication method for a single sign-on by a browsing agent in a mobile communication system, the method comprising: transmitting , to a relaying party, RP, a user-supplied identifier; receiving (207-01), from the RP, a message instructing to redirect a browser of the browsing agent to an open ID provider /network application function, OP/NAF; transmitting (207-09), to the OP/NAF, an identifier of an authentication agent; and transmitting (207-11), to the authentication agent, a message triggering inquiry of the identifier of authentication agent; and wherein the user-supplied identifier is transferred, by the authentication agent, to the OP/NAF based on a reception of the message, and wherein the user-supplied identifier and the identifier of the authentication agent are compared, by the OP/NAF, to determine whether to initiate an authentication procedure using generic bootstrapping architecture, GBA, with the authentication agent. transmitting , to a relaying party, RP, a user-supplied identifier; receiving (207-01), from the RP, a message instructing to redirect a browser of the browsing agent to an open ID provider /network application function, OP/NAF; transmitting (207-09), to the OP/NAF, an identifier of an authentication agent; and transmitting (207-11), to the authentication agent, a message triggering inquiry of the identifier of authentication agent; and wherein the user-supplied identifier is transferred, by the authentication agent, to the OP/NAF based on a reception of the message, and wherein the user-supplied identifier and the identifier of the authentication agent are compared, by the OP/NAF, to determine whether to initiate an authentication procedure using generic bootstrapping architecture, GBA, with the authentication agent.
Method for controlling a plurality of autonomous unmanned vehicles, the method comprising the following steps: - a) provision of input parameters specific to each vehicle, - b) provision of at least two objectives to be fulfilled by the vehicles, and - c) breakdown , in accordance with at least a first criterion, of the objectives into multiple optimal tasks as a function of the input parameters, each optimal task of each objective being associated with a different vehicle, the objectives provided in provision step b) forming a mission, and, following provision step b) and prior to the breakdown step c) , the method comprising the following step: - b') determination of an order of performance of the objectives of the mission as a function of a second criterion, characterised in that the determination step comprises the selection and execution of an algorithm for determination of the order of performance of the objectives of the mission, the algorithm being selected, as a function of the second criterion, from various stored algorithms for determination of the order, and in that the breakdown step c) is carried out as a function of the order. - a) provision of input parameters specific to each vehicle, - b) provision of at least two objectives to be fulfilled by the vehicles, and - c) breakdown , in accordance with at least a first criterion, of the objectives into multiple optimal tasks as a function of the input parameters, each optimal task of each objective being associated with a different vehicle, the objectives provided in provision step b) forming a mission, and, following provision step b) and prior to the breakdown step c) , the method comprising the following step: - b') determination of an order of performance of the objectives of the mission as a function of a second criterion,
A pool wall pillar for erecting a swimming pool, comprising - at least one vertical support , wherein each vertical support has a support profile with a support height and a support width in the direction of the side facing away from the pool, - at least one base support , which at least one base support is designed to project with respect to the support width at least on one side and is connected to the vertical support , - optionally at least one horizontal element , which at least one horizontal element , for stiffening two or multiple adjacently arranged vertical supports , is designed so it can be coupled to the vertical supports , - wherein the vertical support has a plurality of receiving means at least along the support height , - wherein at least one holding element and/or the optional at least one horizontal element each have at least one coupling means , which is complementary in form and function to the receiving means of the vertical support , and in the coupling position on the vertical support , the at least one coupling means is, in each case, formed on a side facing the vertical support , and - wherein the holding element in its coupling position on the vertical support has, at least on a side facing away from the pool, a receiving arm protruding with respect to the support width , with a holding element upper side for supporting at least one pool wall section , which comprises a pool edge , in a vertical and height-adjustable manner, characterized in that - the receiving means is designed as an opening , and the coupling means is designed as a latching element and/or an extension, or - the receiving means is designed as a latching element and/or an extension, and the coupling means is designed as an opening . - at least one vertical support , - at least one base support , - optionally at least one horizontal element , - wherein the vertical support has a plurality of receiving means at least along the support height , - wherein at least one holding element and/or the optional at least one horizontal element each have at least one coupling means , which is complementary in form and function to the receiving means of the vertical support , and in the coupling position on the vertical support , the at least one coupling means is, in each case, formed on a side facing the vertical support , and - wherein the holding element in its coupling position on the vertical support has, at least on a side facing away from the pool, a receiving arm protruding with respect to the support width , with a holding element upper side for supporting at least one pool wall section , which comprises a pool edge , in a vertical and height-adjustable manner, - the receiving means is designed as an opening , and the coupling means is designed as a latching element and/or an extension, - the receiving means is designed as a latching element and/or an extension, and the coupling means is designed as an opening .
A winding module for winding metal wires on spools , said winding module comprising an elongated body and a first series of driven cantilever shafts for carrying spools, said shafts being present at a first side of said elongated body, said shafts having a supported driven end and a load end, defining a shaft direction from said driven end towards said load end, said winding module further comprising a first set of pull-through capstans for pulling the steel wire before winding on the spools, said first set of capstans being associated with said first series of shafts , said capstans having an operator side and a driven side, defining a capstan direction from said driven side towards said operator side, characterised in that said capstan direction is oriented opposite to said shaft direction . a first series of driven cantilever shafts for carrying spools, said shafts being present at a first side of said elongated body, said shafts having a supported driven end and a load end, defining a shaft direction from said driven end towards said load end, said winding module further comprising a first set of pull-through capstans for pulling the steel wire before winding on the spools, said first set of capstans being associated with said first series of shafts , said capstans having an operator side and a driven side, defining a capstan direction from said driven side towards said operator side, characterised in that said capstan direction is oriented opposite to said shaft direction .
Steam power station having a working medium circuit for a working medium, wherein the working medium circuit - viewed in the flow direction of the working medium - has a first heat exchanger system for evaporating the working medium, a steam turbine system , a second heat exchanger system for condensing the working medium and a working medium pump system , wherein at least one coolant circuit of an absorption heat pump at least partially encompasses the first heat exchanger system and at least partially the second heat exchanger system , wherein the absorption heat pump is designed for transferring heat energy from the second heat exchanger system to the first heat exchanger system , wherein an expulsion line leads from a turbine bleed point of the steam turbine system via an expulsion system of the absorption heat pump to a injection point into the working medium circuit , wherein the working medium in the expulsion line provides heat energy for an expulsion process of the absorption heat pump , characterized in that the working medium pump system supplies the working medium condensed in the second heat exchanger system to the first heat exchanger system .
An mobile terminal comprising: a camera lens assembly for shooting an object; and a window having a shooting region disposed in a position corresponding to the camera lens assembly , wherein the window comprises: a front surface including at least a portion of the shooting region and having a curved shape; and a rear surface including: an inclined surface which is inclined relative to the camera lens assembly disposed in at least a portion of the rear surface corresponding to the shooting region , wherein deterioration of image capture quality by the camera lens assembly is prevented by the inclined surface ; wherein, when a first line segment connecting two points where an extension line of an angle of view of the camera lens assembly and the front surface meet, and a second line segment extending from a lens center of the camera lens assembly meet at a right angle, the inclined surface is formed to have the same slope as a slope of a tangential line that passes through a point of the front surface positioned on the second line segment; and wherein a boundary portion between the inclined surface and the rear surface is tapered. a camera lens assembly for shooting an object; and a window having a shooting region disposed in a position corresponding to the camera lens assembly , wherein the window comprises: a front surface including at least a portion of the shooting region and having a curved shape; and a rear surface including: an inclined surface which is inclined relative to the camera lens assembly disposed in at least a portion of the rear surface corresponding to the shooting region , a front surface including at least a portion of the shooting region and having a curved shape; and a rear surface including: an inclined surface which is inclined relative to the camera lens assembly disposed in at least a portion of the rear surface corresponding to the shooting region , wherein deterioration of image capture quality by the camera lens assembly is prevented by the inclined surface ; wherein, when a first line segment connecting two points where an extension line of an angle of view of the camera lens assembly and the front surface meet, and a second line segment extending from a lens center of the camera lens assembly meet at a right angle, the inclined surface is formed to have the same slope as a slope of a tangential line that passes through a point of the front surface positioned on the second line segment; and wherein a boundary portion between the inclined surface and the rear surface is tapered.
A method of controlling a ceiling type air conditioner including a panel located on a ceiling surface, outlets formed to correspond to four sides of the panel , and first to fourth discharge vanes for opening and closing the outlets , and each of the first to fourth discharge vanes including an upper discharge vane and a lower discharge vane located below the upper discharge vane and rotating along with the upper discharge vane , the method comprising: performing first operation in which the first discharge vane rotates in a first angle group (P1), the second discharge vane rotates in a second angle group (P2), the third discharge vane rotates in a third angle group (P3) and the fourth discharge vane rotates in a fourth angle group (P4); performing second operation in which the first discharge vane rotates in the fourth angle group (P4), the second discharge vane rotates in the first angle group (P1), the third discharge vane rotates in the second angle group (P2) and the fourth discharge vane rotates in the third angle group (P3); performing third operation in which the first discharge vane rotates in the third angle group (P3), the second discharge vane rotates in the fourth angle group (P4), the third discharge vane rotates in the first angle group (P1) and the fourth discharge vane rotates in the second angle group (P2); and performing fourth operation in which the first discharge vane rotates in the second angle group (P2), the second discharge vane rotates in the third angle group (P3), the third discharge vane rotates in the fourth angle group (P4) and the fourth discharge vane rotates in the first angle group (P1), wherein the first to the fourth angle groups (P1, P2, P3, P4) are set such that rotation angles (a, b), of the discharge vanes have different ranges. performing first operation in which the first discharge vane rotates in a first angle group (P1), the second discharge vane rotates in a second angle group (P2), the third discharge vane rotates in a third angle group (P3) and the fourth discharge vane rotates in a fourth angle group (P4); performing second operation in which the first discharge vane rotates in the fourth angle group (P4), the second discharge vane rotates in the first angle group (P1), the third discharge vane rotates in the second angle group (P2) and the fourth discharge vane rotates in the third angle group (P3); performing third operation in which the first discharge vane rotates in the third angle group (P3), the second discharge vane rotates in the fourth angle group (P4), the third discharge vane rotates in the first angle group (P1) and the fourth discharge vane rotates in the second angle group (P2); and performing fourth operation in which the first discharge vane rotates in the second angle group (P2), the second discharge vane rotates in the third angle group (P3), the third discharge vane rotates in the fourth angle group (P4) and the fourth discharge vane rotates in the first angle group (P1), wherein the first to the fourth angle groups (P1, P2, P3, P4) are set such that rotation angles (a, b), of the discharge vanes have different ranges.
Linear electromagnetic actuator having an axis of symmetry A and a stroke c, at least one stable position in one of the ends of the stroke, and comprising an armature made of a soft magnetic material, said armature being movable along the axis A and having a length Hm along the axis A, said armature having a shape symmetrical to the axis A, and a fixed stator yoke made of a soft magnetic material and supporting at least one electric coil , said actuator further comprising at least one fixed permanent magnet magnetized along a transverse axis perpendicular to direction A, the magnet being placed transversely between the moving armature and the electric coil , the magnet having a length Ha along direction A, the fixed yoke and the moving armature defining therebetween at least one axial residual air gap (Hg), Ha+c being of the order of magnitude Hm, the length Hm being such that 0.9 * (Ha+c) < Hm < 1.1 * (Ha+c), the actuator having two polar tips secured to the yoke , which are positioned transversely between the moving armature and the electric coil and vertically on either side of the magnet , and which extend axially toward the magnet over respective heights Hph, Hpb.
A regulator control assembly for controlling flow from two sources, the regulator control assembly comprising: a control valve defining a desired fluid pressure through an outlet ; a primary regulating valve controlling fluid flow and pressure through a primary passage to the outlet from a primary fluid flow source ; a secondary regulating valve controlling fluid flow and pressure through a secondary passage to the outlet from a secondary fluid flow source ; and a mixing valve latching the primary regulating valve in a desired position responsive to a desired fluid flow through the primary and secondary passages to the outlet , characterised in that the assembly further comprises: a primary control passage and a secondary control passage , an electronically-controlled servo valve configured to set a desired fluid pressure at the outlet by means of the primary regulating valve , by being configured to control fluid flow from the primary passage to the primary control passage and to the secondary control passage wherein the primary regulating valve moves responsive to a pressure differential between the primary control passage and the primary passage and wherein the secondary regulating valve moves responsive to a pressure differential between the secondary control passage and the primary passage . a control valve defining a desired fluid pressure through an outlet ; a primary regulating valve controlling fluid flow and pressure through a primary passage to the outlet from a primary fluid flow source ; a secondary regulating valve controlling fluid flow and pressure through a secondary passage to the outlet from a secondary fluid flow source ; and a mixing valve latching the primary regulating valve in a desired position responsive to a desired fluid flow through the primary and secondary passages to the outlet , characterised in that the assembly further comprises: a primary control passage and a secondary control passage , an electronically-controlled servo valve configured to set a desired fluid pressure at the outlet by means of the primary regulating valve , by being configured to control fluid flow from the primary passage to the primary control passage and to the secondary control passage wherein the primary regulating valve moves responsive to a pressure differential between the primary control passage and the primary passage and wherein the secondary regulating valve moves responsive to a pressure differential between the secondary control passage and the primary passage . a primary control passage and a secondary control passage , an electronically-controlled servo valve configured to set a desired fluid pressure at the outlet by means of the primary regulating valve , by being configured to control fluid flow from the primary passage to the primary control passage and to the secondary control passage wherein the primary regulating valve moves responsive to a pressure differential between the primary control passage and the primary passage and wherein the secondary regulating valve moves responsive to a pressure differential between the secondary control passage and the primary passage .
A power supply circuit comprising: a voltage application unit configured to apply an operation voltage (Vt) to a sensor that outputs an output value (Th) based on a detected state quantity, characterized in that the operation voltage is based on a standard voltage (Vref, Vcc), and the power supply circuit comprises a switching unit configured to switch the standard voltage of the voltage application unit so that the standard voltage becomes a voltage required to operate the sensor in accordance with a type of the sensor, wherein the switching unit outputs the switched standard voltage which is applied to the voltage application unit . a voltage application unit configured to apply an operation voltage (Vt) to a sensor that outputs an output value (Th) based on a detected state quantity, characterized in that the operation voltage is based on a standard voltage (Vref, Vcc), and the power supply circuit comprises a switching unit configured to switch the standard voltage of the voltage application unit so that the standard voltage becomes a voltage required to operate the sensor in accordance with a type of the sensor, wherein the switching unit outputs the switched standard voltage which is applied to the voltage application unit .