Abstract: A home-automation equipment includes a concealing device including a screen, a holding device of the screen, a first motorized drive device and an autonomous electrical energy supply device. The first device includes an electromechanical actuator which makes it possible to raise and lower the screen. The supply device includes a battery arranged on the holding device of the screen, a power supply cable and an electrical connection element that is electrically connected to the battery by the cable, the element being designed to be connected to an external electrical supply source, in order to recharge the battery. The concealing device includes a second motorized drive device including an electromechanical actuator making it possible to wind and unwind the cable on a winding spool.

Abstract: A home-automation equipment includes a concealing device including a screen, a holding device of the screen, a first motorized drive device and an autonomous electrical energy supply device. The first device includes an electromechanical actuator which makes it possible to raise and lower the screen. The supply device includes a battery arranged on the holding device of the screen, a power supply cable and an electrical connection element that is electrically connected to the battery by the cable, the element being designed to be connected to an external electrical supply source, in order to recharge the battery. The concealing device includes a second motorized drive device including an electromechanical actuator making it possible to wind and unwind the cable on a winding spool.

Abstract: The invention relates to a device for winding a screen (10) which comprises a tubular winder (12) defining a reference axis (100); a first wall attachment (18A) for fastening a first axial end portion (14A) of the tubular winder (12) to a first wall (16A) in a use position of the screen-winding device (10); and a second wall attachment (18B) for fastening a second axial end portion (14B) of the tubular winder (12) to a second wall (16B) in the use position of the screen-winding device (10). The first wall attachment (18A) comprises at least one tab (54) for fastening to the first wall (16A) and at least one first hinge (58) supported by the fastening tab (54) in order to guide a pivoting of the tubular winder (12) about a first axis of articulation (200) that does not intersect with the reference axis (100) and, in the use position, orthogonal to the reference axis (100).

Abstract: In order to control the light or air permeability of an elastic extensible screen (1) disposed between an area to be protected and an external area, and having a permeability that varies with a pulling force exerted on the screen, a motorized mechanism (3) adjusts the pulling force on the screen in response to a setpoint signal, which can be determined on the basis of one or a plurality of signals from one or a plurality of sensors (12, 14, 15), in particular light sensors.

Abstract: A range of motorized-drive devices (100, 200, 300) for screening blinds comprises: at least one first drive device (100) for driving a first screening blind, comprising a first support (102), a first shaft (104) rotating about a first axis of revolution (106) with respect to the first support (102), at least a winding drum (108) for winding a drive cord of the first screening blind, rotating as one with the first shaft (104), a first geared motor unit (110) for driving the first shaft (104), housed in the first support (102) and kinematically connected to the first shaft (104), preferably via an overdrive (112), and a first electronic control module (114) fixed remote from the first geared motor unit (110), and at least one second drive device (200) for driving a second screening blind, comprising a second support (202), a winding tube (204) for the second screening blind mounted in the second support (202) so as to rotate about a second axis of revolution (206) with respect to the second support (202), a sec

Abstract: An apparatus (10) for winding a screen (12) comprises a winding drum (14) for winding the screen (12) which can rotate about an axis of rotation (16) with respect to a fixed frame of reference over more than one revolution between at least one first end-of-travel position and a second end-of-travel position, a motor assembly (30) comprising a motor (32) equipped with a stator (32.1) intended to be fixed to a fixed support (23, 26) and a rotor (32.2) kinematically connected to the winding drum (14). A first measurement assembly (51) comprises a first encoder (46) secured to the rotor (32.2), a first sensor for reading the first encoder (46) and generating a first counting signal when the first encoder (46) turns. First processing means (50) generate, as a function of the first counting signal, a first signal indicative of the position of the screen, which signal is monotonous when the drum moves from the first end-of-travel position to the second end-of-travel position.

Abstract: A method to be used for controlling a screen (1) including a load bar (2), a flexible element (4) supporting the load bar, and at least one controlled member for winding the flexible member, in order to move the load bar (2) between a first high or low position and a second low or high position, the movement resulting from an angular movement of the winding member. The method includes at least one step in which the angular movement of the of the winding member (52) is controlled with a temporal set value (?(t)) of the instantaneous angular position (?(t)) of the winding member (52).

Abstract: An actuator (2) for driving a blind with adjustable slats, the actuator including a housing (20) inside which a motor (22) is installed, the motor driving a first output shaft (21) that projects on either side of the housing (20), characterised in that the actuator further includes a second output shaft (23) of which the axis of rotation (X23) is parallel to and not coinciding with that of the first output shaft (21) and controlled coupling elements (26) making it possible to selectively transmit a rotational movement from the first output shaft (21) to the second output shaft (23), and in that the second output shaft (23) projects on either side of the housing (20).

Abstract: An apparatus (10) for winding a screen (12) comprises a winding drum (14) for winding the screen (12) which can rotate about an axis of rotation (16) with respect to a fixed frame of reference over more than one revolution between at least one first end-of-travel position and a second end-of-travel position, a motor assembly (30) comprising a motor (32) equipped with a stator (32.1) intended to be fixed to a fixed support (23, 26) and a rotor (32.2) kinematically connected to the winding drum (14). A first measurement assembly (51) comprises a first encoder (46) secured to the rotor (32.2), a first sensor for reading the first encoder (46) and generating a first counting signal when the first encoder (46) turns. First processing means (50) generate, as a function of the first counting signal, a first signal indicative of the position of the screen, which signal is monotonous when the drum moves from the first end-of-travel position to the second end-of-travel position.

Abstract: An actuator (2) for driving a blind with adjustable slats, the actuator including a housing (20) inside which a motor (22) is installed, the motor driving a first output shaft (21) that projects on either side of the housing (20), characterised in that the actuator further includes a second output shaft (23) of which the axis of rotation (X23) is parallel to and not coinciding with that of the first output shaft (21) and controlled coupling elements (26) making it possible to selectively transmit a rotational movement from the first output shaft (21) to the second output shaft (23), and in that the second output shaft (23) projects on either side of the housing (20).

Abstract: The present invention relates to a method of controlling an actuator for a mobile item of equipment in building comprising the steps consisting in: deploying a model (M) linking at least one modelling parameter (P) with at least one characteristic physical quantity (C) of the environment or of the operation of the actuator exhibiting a temporal evolution; collecting a set of measurement values (VCm) relating to the at least one characteristic physical quantity (C) of the environment or of the operation of the actuator in the course of a measurement interval (Tm), each measurement value (VCm) being associated with an instant (Tm) of the measurement interval (Tm); determining or correcting at least one value (VP) of the at least one modelling parameter (P) in such a way that a modelled temporal evolution (Ee) defined on the basis of the application of the model (M) of the at least one value (VP) of modelling parameter (P) corresponds to or approaches an observed temporal evolution (Eo) of the characteristic phy

Abstract: A screen (1) includes a load bar (2), a flexible element (3) supporting the load bar, and a controlled member (4) for winding the flexible member, wherein the member is controlled according to a method that includes controlling the angular movement of the winding member (4) with a temporal set value (?(t)) of the instantaneous angular position of the winding member, the temporal set value being predetermined from a profile representative of the desired instantaneous axial position for the load bar upon a movement between the first and second positions, using a polynomial function of a degree higher than or equal to 2, which approximates the relation between a value of the instantaneous axial position (H(t)) of the load bar and an instantaneous angular position (?(t)) of the winding member (4).

Abstract: In order to control the light or air permeability of an elastic extensible screen (1) disposed between an area to be protected and an external area, and having a permeability that varies with a pulling force exerted on the screen, a motorized mechanism (3) adjusts the pulling force on the screen in response to a setpoint signal, which can be determined on the basis of one or a plurality of signals from one or a plurality of sensors (12, 14, 15), in particular light sensors.

Abstract: A coupling device installed between an output shaft of an electric motor and an input shaft of a reducing gear of an actuator for driving a screen or a hatch that is part of home-automation equipment for closure, solar protection, or projection and which includes a first member rotatably secured to the output shaft, and which is provided with at least one longitudinal outer groove, and a second member rotatably secured to the input shaft, and which is provided with at least one longitudinal outer groove and wherein the coupling device further includes an element for coupling the first and second members together in rotation, and which has, on at least one surface thereof, at least two series of lugs which project from the at least one surface, wherein the lugs are inserted into the longitudinal outer groove of the first member and the longitudinal outer groove of the second member, respectively.

Abstract: This driving carriage for a sliding curtain comprises a body that can move along a rail by virtue of two pairs of carrier wheels supported by the carriage, this body being provided, between the two pairs of carrier wheels along the longitudinal axis of the carriage, with at least one opening designed to receive a part of an inner curved edge of the rail without the rail striking the carriage. This eliminates or greatly limits the risks of the carriage becoming jammed along the rail.

Abstract: Each screen (1) of a group of screens is configured by a method in which a function is approximated, the function giving the instantaneous axial position (H(t)) of the load bar (2) thereof along an axis (Z) of translation in the form of a function having, as a variable, the instantaneous angular position (y(t)) of a winding device (4). The load bars of the screens are sequentially moved into a plurality of positions in which the load bars are aligned, and then the angular position (y(t)) of the winding device is determined. Next, the coefficients defining the approximation function of each screen are determined. The movement of the load bar of each screen is controlled by an instantaneous angular-position set value (?(t)), which is in turn predetermined from a representative profile using the one-to-one approximation function.

Abstract: The invention relates to a coupling device (200) to be installed between an output shaft and an input shaft, such as an output shaft of an electric motor and an input shaft of a reducing gear of an actuator for driving a screen or a hatch that is part of home-automation equipment for closure, solar protection, or projection. Said coupling device (200) includes a first member (201) which is rotatably secured, or suitable for being rotatably secured, to the output shaft, and which is provided with at least one longitudinal outer groove (2013), and a second member (202) which is rotatably secured, or suitable for being rotatably secured, to the input shaft, and which is provided with at least one longitudinal outer groove (2023).

Abstract: The invention relates to a cord winder (1) for a window-covering device, said cord winder including: a drum (7) for winding a cord (40), said drum being rotatable around a first rotationally symmetrical axis (A-A?); and a means (12, 13b) for guiding the cord to the winding drum, the winding drum being rotatably mounted in a holder (2). Said cord winder is characterized in that it includes a rotatable roller (14) that is mounted onto the holder along a second rotationally symmetrical axis (B-B?). Said cord winder is moreover characterized in that it includes a friction area (23) wherein at least one coil of the cord, wound onto the winding drum, is in contact with the rotatable drum.

Abstract: A screen (1) includes a load bar (2), a flexible element (3) supporting the load bar, and a controlled member (4) for winding the flexible member, wherein the member is controlled according to a method that includes controlling the angular movement of the winding member (4) with a temporal set value (?(t)) of the instantaneous angular position of the winding member, the temporal set value being predetermined from a profile representative of the desired instantaneous axial position for the load bar upon a movement between the first and second positions, using a polynomial function of a degree higher than or equal to 2, which approximates the relation between a value of the instantaneous axial position (H(t)) of the load bar and an instantaneous angular position (?(t)) of the winding member (4).

Abstract: Each screen (1) of a group of screens is configured by a method in which a function is approximated, the function giving the instantaneous axial position (H(t)) of the load bar (2) thereof along an axis (Z) of translation in the form of a function having, as a variable, the instantaneous angular position (y(t)) of a winding device (4). The load bars of the screens are sequentially moved into a plurality of positions in which the load bars are aligned, and then the angular position (y(t)) of the winding device is determined. Next, the coefficients defining the approximation function of each screen are determined. The movement of the load bar of each screen is controlled by an instantaneous angular-position set value (?(t)), which is in turn predetermined from a representative profile using the one-to-one approximation function.