Abstract: A construction assembly for a prefabricated building, comprises horizontal elements and vertical elements as well as assembly elements. The horizontal, vertical and assembly elements are formed by a first panel forming one of the longitudinal faces, a second panel forming a structuring layer on the opposite longitudinal face, and an insulating layer disposed between the longitudinal faces. The thickness U of the vertical elements corresponds to the cross-section of the assembly elements, the length of the vertical elements is a multiple of U, and at least some of the assembly elements further comprise fluid pipes and/or electrical cabling.

Abstract: A method of acquiring data of a matrix touch sensor including a matrix array of cells arranged according to a set of rows and columns, the method including: activating the cells arranged according to a column of at least one subset of columns of the matrix touch sensor; taking an overall measurement of an overall electrical characteristic on all the rows of at least one subset of rows of the matrix touch sensor; taking a sequential measurement of an electrical characteristic successively on each row of the at least one subset of rows, if the overall electrical characteristic has a value representative of a contact on at least one of the cells arranged according to the column; and repeating the overall measurement and sequential measurement after activating the cells arranged according to another column of the at least one subset of columns of the matrix touch sensor.

Abstract: A method of acquiring data of a matrix touch sensor including a matrix array of cells arranged according to a set of rows and columns, the method including: activating the cells arranged according to a column of at least one subset of columns of the matrix touch sensor; taking an overall measurement of an overall electrical characteristic on all the rows of at least one subset of rows of the matrix touch sensor; taking a sequential measurement of an electrical characteristic successively on each row of the at least one subset of rows, if the overall electrical characteristic has a value representative of a contact on at least one of the cells arranged according to the column; and repeating the overall measurement and sequential measurement after activating the cells arranged according to another column of the at least one subset of columns of the matrix touch sensor.

Abstract: A device configured to acquire tactile information including a transparent tactile matrix sensor having rows and columns of conductive stripes; and a scanning control unit, wherein the scanning control unit is configured to sequentially read out tactile information from the rows and the columns of the conductive stripes of the transparent tactile matrix sensor.

Abstract: A method of controlling a computerized device with a tactile multi-point matrix sensor placed on a display device, the method including the steps of simultaneously acquiring data of a first contact position and a second contact position of a first and a second finger that is placed on the multi-point tactile matrix sensor, respectively; creating a first cursor and a second cursor that are associated with the first and second finger, respectively; displaying a graphical object on the display device; associating the first cursor and the second cursor with the graphical object to interact with the graphical object; and generating control messages for the computerized device based on positional data of the first cursor, the second cursor, and the graphical object.

Abstract: A touch sensor including a tactile detection zone including a matrix array of conducting tracks constituting columns on a first insulating layer and rows on a second insulating layer, the first and second insulating layers being disposed opposite one another, and an array of conducting tracks configured to transfer electrical signals between the rows and columns of the matrix array and an interface connector for interfacing with a control system of the tactile sensor. The touch sensor further includes control circuits associated respectively with the rows and columns of the matrix array of conducting tracks, the array of conducting tracks extending between the control circuits and the interface connector.

Abstract: A tactile sensor includes an insulating support including a first face including a first series of parallel conducting tracks and a second face including a second series of parallel conducting tracks, the insulating support being folded and the second face being disposed opposite the first face. The tactile sensor includes an array of conducting tracks extending in an edge zone intended to be folded, along fold lines. The tactile sensor can, for example, be used in a tactile control screen.

Abstract: A multicontact tactile sensor including a matrix formed of two transparent conducting layers, at least one exhibiting an array of fine conducting tracks, a control circuit including a power supply for one of the layers, and a mechanism detecting the other layer, the sensor having an operating mode of multicontact type corresponding to a sweep of supply to the lines of the corresponding layer, and an operating mode of monocontact type corresponding to a continuous and uniform supply over a whole of the sensor, each operating mode being activated as a function of the detection or nondetection of at least one contact.

Abstract: An electronic analysis circuit of a multicontact passive-matrix tactile sensor including an electrical supply mechanism powering one of two axes of the matrix, and a mechanism detecting electrical characteristics along the other axis of the matrix, at intersections between the two axes. The supply axis and the detection axis are alternated. A multicontact passive-matrix tactile sensor includes an electrical supply mechanism powering one of the two axes of the matrix, a mechanism detecting electrical characteristics along the other axis of the matrix, at the intersections between the two axes, and such an electronic circuit.

Abstract: A multi-contact, tactile sensor including an upper layer including strip conductors arranged in lines, a lower layer including strip conductors arranged in columns, and a spacer positioned between the upper layer and the lower layer to insulate the upper layer and lower layer. An electromechanical mechanism is arranged between the upper and lower layers to increase electrical contact resistance during contact between at least one strip conductor of the upper layer and at least one strip conductor of the lower layer.

Abstract: A device configured to acquire tactile information, including a transparent tactile matrix sensor; a display device; a measurement unit configured to simultaneously measure a first position of a first finger and a second position of a second finger that are placed on the transparent tactile matrix sensor; a graphical processing unit configured to generate a first and a second cursor that are associated with the first and second position, respectively; and a processor configured to execute an application that associates the first and second cursors with a graphical object that is displayed on the display device, to interact with the graphical object.

Abstract: A process for controlling computerized equipment with a device including a multi-contact bidimensional sensor that acquires tactile information and a calculator that generates command signals as a function of the tactile information, including graphical objects on a screen placed under a transparent multi-contact tactile sensor, each graphical object associated with at least one specific processing rule such that the sensor delivers during each acquisition phase a plurality of tactile information, and each piece of the tactile information forms an object of a specific processing determined by its localization relative to a position of one of the graphical objects.

Abstract: A device configured to acquire tactile information, that can be placed over a display device, including a transparent tactile matrix sensor having rows and columns of conductive stripes, the rows arranged next to each other to form a first layer, and the columns are arranged next to each other to form a second layer, and a transparent resistive layer arranged between the first layer of rows and the second layer of columns, a resistivity of the transparent resistive layer decreasing as a function of a pressure that is exerted onto the transparent resistive layer; and a measurement unit configured to measure an electric resistance for each overlap area of a column and a row that are separated from each other by the transparent resistive layer to acquire information on a pressure force at the respective overlap area to acquire the tactile information.

Abstract: A device configured to acquire tactile information, including a transparent tactile matrix sensor; a display device; a measurement unit configured to simultaneously measure a first position of a first finger and a second position of a second finger that are placed on the transparent tactile matrix sensor; a graphical processing unit configured to generate a first and a second cursor that are associated with the first and second position, respectively; and a processor configured to execute an application that associates the first and second cursors with a graphical object that is displayed on the display device, to interact with the graphical object.

Abstract: A device for controlling an electronic apparatus by handling graphic objects. The device includes a visualisation screen, a transparent multi-contact touch sensor for acquiring multi-contact touch information generated by a plurality of pointing devices, and an electronic control circuit for generating control signals based on the touch information and for generating graphic objects on the visualisation screen. Each of the graphic objects is associated with at least one specific processing rule. Each piece of touch information is subjected to a specific processing determined by the location thereof relative to the position of the graphic objects. A first series of main graphic objects and a second series of subordinate graphic objects respectively have main and subordinate complementary functions associated respectively with at least one main specific processing rule and at least one subordinate specific processing rule.

Abstract: A device configured to acquire tactile information including a transparent tactile matrix sensor having rows and columns of conductive stripes; and a scanning control unit, wherein the scanning control unit is configured to sequentially read out tactile information from the rows and the columns of the conductive stripes of the transparent tactile matrix sensor.

Abstract: A method of controlling a computerized device with a tactile multi-point matrix sensor placed on a display device, the method including the steps of simultaneously acquiring data of a first contact position and a second contact position of a first and a second finger that is placed on the multi-point tactile matrix sensor, respectively; creating a first cursor and a second cursor that are associated with the first and second finger, respectively; displaying a graphical object on the display device; associating the first cursor and the second cursor with the graphical object to interact with the graphical object; and generating control messages for the computerized device based on positional data of the first cursor, the second cursor, and the graphical object.

Abstract: An electronic analysis circuit for a multicontact passive-matrix tactile sensor including an electrical supply mechanism powering one of two axes of the matrix, and a mechanism detecting electrical characteristics along the other axis of the matrix, at nodes between the two axes. At least one scanning characteristic is modulated locally or temporally. A multicontact passive-matrix tactile sensor can include such an electronic analysis circuit.

Abstract: A multicontact tactile sensor including a matrix formed of two transparent conducting layers, at least one exhibiting an array of fine conducting tracks, a control circuit including a power supply for one of the layers, and a mechanism detecting the other layer, the sensor having an operating mode of multicontact type corresponding to a sweep of supply to the lines of the corresponding layer, and an operating mode of monocontact type corresponding to a continuous and uniform supply over a whole of the sensor, each operating mode being activated as a function of the detection or nondetection of at least one contact.

Abstract: An electronic analysis circuit of a multicontact passive-matrix tactile sensor including an electrical supply mechanism powering one of two axes of the matrix, and a mechanism detecting electrical characteristics along the other axis of the matrix, at intersections between the two axes. The supply axis and the detection axis are alternated. A multicontact passive-matrix tactile sensor includes an electrical supply mechanism powering one of the two axes of the matrix, a mechanism detecting electrical characteristics along the other axis of the matrix, at the intersections between the two axes, and such an electronic circuit.