Abstract: The invention relates to a method for installing a piece of home automation equipment, and to a system for adjustably attaching a piece of home automation equipment to a wall, comprising at least two supports (1), each one comprising a support shaft and a holding device, and at least two adjustable attaching elements. The adjustable attaching elements each comprise a supporting frame (2) and a mechanical connection element (3). The adjustable attaching elements also comprise a locking device.

Abstract: Disclosed is a method and a system for sharing communication between connected home-automation devices belonging to a first communication network and a remote device connected to a second communication network, the first communication network being connected to the second communication network by a network device, the network device being suitable for allowing communication between at least one connected home-automation device of the first network and the remote device. The method includes determining a communication link device among the connected home-automation devices of the first communication network, as a function of at least one feature of the connected home-automation devices, and maintaining, by the communication link device, a communication channel between the first communication network and the remote device via the network device for the benefit of the other connected home-automation devices of the first communication network.

Abstract: This home-automation system for a building comprises: home-automation equipment, distributed within areas of the building; and a communication network, to which the home-automation equipment is connected, and authorizing an inter-communication of the home-automation equipment according to a predefined communication protocol. The communication network is a hard-wired hierarchical network comprising: a first network of rank n; a plurality of sub-networks of lower hierarchical rank n?1, connected to the first network, each sub-network being associated with an area and containing at least one of the home-automation equipment items; each sub-network of the lower hierarchical rank n?1 being hooked up to the first network of rank n by a network equipment item.

Abstract: Disclosed is a method for determining a solar mask for a facility that comprises a step (E10) of positioning a mobile terminal at a predetermined location of a photovoltaic panel. Following the step (E10), the method comprises a step (E20) of taking a single photograph with a camera of the mobile terminal and a step (E30) of determining an orientation of the camera, during the step (E20), by means of an orientation detection device and a controller of the mobile terminal. The method further comprises a step (E40) of extending at least one contour of the photograph, in at least one direction, and a step (E60) of superimposing data from the extended photograph with a sun path diagram, in a common reference frame, so as to determine the solar mask.

Abstract: A tubular electromechanical actuator for a home-automation installation includes at least an electronic control unit, an electric motor, a reduction gear, an output shaft, a casing and a closure element. The unit includes a housing and an electronic board. The electronic board is arranged inside the housing. The casing is hollow and configured to house at least the unit, the electric motor and the reduction gear. The closure element is configured to close off an end of the casing. The housing includes at least a first section, produced in the form of a hollow tube, and a second section, produced in the form of a hollow tube. The first and second sections are configured to house the electronic board. In addition, the first section includes first fastening elements configured to cooperate with first fastening elements of the second section.

Abstract: Disclosed is an operating method for a wirelessly communicating electronic device, including the following steps: a) acquisition of a radio-frequency frame representative of at least one data item intended to be transmitted by the radio-frequency transmitter in a radio-frequency message; b) determination of the amount of power available in the power storage; c) determination, by the control circuit, of the length of the radio-frequency message to be transmitted; d) determination of transmission parameters of the radio-frequency transmitter, according to the values determined for the length of the message and the amount of power available in the power storage; e) and transmission of the message by the transmitter, using the determined transmission parameters.

Abstract: Disclosed is a method for manufacturing a spring for a spring brake, including a shaping and cutting step f) including the following sub-steps: —f1) shaping a raw wire into a coil with a plurality of raw turns, the raw wire having: raw portions that extend from the end of the raw wire over at least one raw turn, and an intermediate portion between the raw portions, —f2) separating the first raw portion and the second raw portion of the raw wire by cutting, after implementing sub-step f1), and —f3) shaping a first tab (5), at a first end of the intermediate portion, after sub-step f1), and —f4) shaping a second tab (7), at a second end of the intermediate portion opposite the first end, after sub-step f1).

Abstract: Disclosed is a method for indirectly activating at least one connected object intended to be joined to a network of connected objects, the network of connected objects including at least one network organizing agent and a commissioning agent, each including a communication module, the communication module including a first radiofrequency interface suitable for communicating according to a first communication protocol, the method including a step of collecting information that is useful for connecting at least one connected object to the network of connected objects by a mobile terminal, a step of transmitting, by the mobile terminal, the collected information to the commissioning agent and a step of inputting at least one connected object into the network of connected objects using information useful for connecting the connected object.

Abstract: Disclosed is an electromechanical actuator including a spring brake including a helical spring, a drum, an input member and an output member. The drum includes a friction surface configured to cooperate with at least one turn of the spring. The output member includes at least one lug. The lug includes a recess provided with at least a first bearing surface configured to cooperate with one of the first and second legs of the spring. The first bearing surface of the recess is inclined with respect to an axis of rotation of the brake at an angle of inclination of non-zero value.

Abstract: A method of managing traffic in a communication network is implemented by a network interface of a communicating element during the transmission of a message on a physical link of the network, the message including a transmission priority level. This method includes the steps of: detecting an internal state of a data link layer, as long as the internal state of the link layer does not allow the message to be sent immediately: waiting for the internal state of the link layer to reach a priority state equal to or lower than the transmission priority level, increasing the transmission priority level each time the internal state resumes a busy state signifying that a signal is present on the physical link during this wait time; sending the message when the internal state changes to a priority state equal to or lower than the transmission priority level.

Abstract: A tubular electromechanical actuator includes an electric motor, reduction gear, output shaft and casing. The casing is hollow and houses at least the electric motor and the reduction gear. The casing includes a first end and a second end. The actuator also includes a retaining element assembled at the first end of the casing, so as to close off the first end of the casing. The retaining element includes at least a first stop configured to cooperate with the reduction gear, in an assembled configuration of the actuator, and a second stop configured to cooperate with the casing, at the first end of the casing, in the assembled configuration of the actuator. Furthermore, the retaining element includes at least one accommodation configured to cooperate with at least one rib of the reduction gear, so as to participate in the sealing between the retaining element and the reduction gear.

Abstract: Disclosed is a communication method implemented in a home-automation system for a building including communicating elements including home-automation and network equipment, the communicating elements being connected to an unconfigured communication network, each communicating element utilizing a predefined communication protocol, and having physical and network addresses including a network prefix cut up into a plurality of addressing fields, at least one of which is not filled.

Abstract: An electromechanical actuator comprises a housing, a torque support (21) and a module for filtering vibrations (33). The torque support (21) comprises a shaft (35) extending along an axis of rotation (X) of the actuator. The module (33) is arranged inside the housing and comprises a transmission element (36), a stop (38) and first and second viscoelastic elements (39, 40). The transmission element (36) is mounted around the shaft (35) and is attached to the housing. The stop (38) is connected to the shaft (35). The first viscoelastic element (39) is arranged between the torque support (21) and a first end (36a) of the transmission element (36). The second viscoelastic element (40) is arranged between a second end (36b) of the transmission element (36) and the stop (38).

Abstract: A tubular electromechanical actuator includes an assembly, a casing and a closure element for closing off the casing. The assembly includes an electronic control unit, an electric motor, a reduction gear and an output shaft. The casing is hollow and configured to house the assembly. The casing includes a first end and a second end. The output shaft protrudes from the casing at the first end of the casing, in an assembled configuration of the actuator. The closure element protrudes from the casing at the second end of the casing, in the assembled configuration of the actuator. The actuator also includes an interface element. The interface element is arranged between the closure element and the electronic control unit. In addition, the interface element includes a housing containing an element for preventing play between the closure element and the interface element along the axial direction of the actuator.

Abstract: Disclosed is a drive system for driving a screen, that includes an actuator designed to drive in rotation a winding tube acting on the screen, and a compensation spring which is mounted around the actuator and has several turns formed by winding a wire. The drive system includes at least one ring made of plastic material that is placed between two adjacent turns of the compensation spring, and an external radius of the ring is larger than a maximum external radius of the compensation spring.

Abstract: A tubular electromechanical actuator includes an electric motor, a housing, a closure element and a crown. The housing includes a first end and a second end. The closure element is configured to close off the second end of the housing and includes indentations configured to engage with recesses in the housing. The crown is arranged at least around the housing and at the second end of the housing. The crown is a monobloc part and includes clearances and a stop. The clearances of the crown are configured to engage with the indentations of the closure element. The stop is configured to engage with the indentations of the closure element, following the assembly of the crown with the closure element and a rotational movement of the crown relative to the closure element, so as to block the translation of the crown with respect to the closure element.

Abstract: An electromechanical actuator (11) for a closure, obscuring or solar protection installation (6) includes a motor assembly (16), including an electric motor (261) and a reduction gearbox (265), first and second (133) mechanical modules for filtering vibrations, and an output shaft (20), inserted at least partially in a casing (17. the electromechanical actuator (11) extends along a longitudinal axis (X), the first and the second mechanical modules (33, 133) being disposed on either side of the motor assembly (16) along the longitudinal axis (X) and each having a rigid transmission coupling, with at least a first degree of freedom perpendicularly to the longitudinal axis (X), allowing the motor assembly (16) to move along a plane perpendicular to the longitudinal axis (X), the electromechanical actuator also comprising at least one elastic module (130) that limits the movement of the motor assembly (16) along the perpendicular plane.