Abstract: A method for controlling functions of a vehicle by a remote control unit is provided herein. Signals are transmitted wirelessly between the remote control unit and a station in the vehicle. A data transmission rate depends on a distance between the remote control unit and the station. The data transmission rate is specified. If the data transmission rate is below a defined limit value, the vehicle functions to be controlled are no longer performed or are performed to a restricted extent only and/or the remote control unit emits warning signals.

Abstract: An electronic brake system for a vehicle has an electronic control device and wear sensors on brakes. In the electronic brake system, signals of the wear sensors are transmitted in a wireless fashion to the control device or to a receiver which is connected to the control device.

Abstract: A system for transferring data from a wireless network of a vehicle includes a first station for covering a first wireless network, which is secured by encryption and a mobile device. The mobile device is configured for connecting to the first wireless network and to a second wireless network. The first station is provided in the vehicle, wherein access data for connecting to the two wireless networks is available in the mobile device. In the vehicle, data are available, which are transmitted from the first station to the mobile device, and from there to the second station.

Abstract: Disclosed is a method for controlling brakes in a trailer vehicle comprising a pneumatic brake system, service brakes and an electronic brake system with anti-lock control, wherein at least one axle of the trailer vehicle is fitted with spring-loaded brakes and revolution rate sensors. The method comprises: monitoring with the electronic brake system whether there is a braking demand, monitoring with the electronic brake system whether at least one wheel of at least one axle is locking up, and if there is no braking demand and at least one wheel of the at least one axle is locked while traveling, controlling the pneumatic braking system with the electronic brake system to pressurize the spring-loaded brakes and to brake the trailer vehicle by the service brakes automatically and with anti-lock control. A valve arrangement is also disclosed.

Abstract: Disclosed is a method for automatically controlling brakes in a trailer vehicle having antilock control, wherein wheel rotational speeds are continuously monitored and evaluated at wheels having antilock control. According to the method, lateral acceleration and longitudinal acceleration of the trailer vehicle are determined. If a predefined, critical lateral acceleration is exceeded, an automatic braking process occurs. A control unit and trailer vehicle are also disclosed in connection with the inventive method.

Abstract: Disclosed is a valve arrangement for aerating spring accumulator brake cylinders in a trailer vehicle with a pneumatic braking system, the valve arrangement having a first connection for a line connected to a reservoir of the trailer vehicle, a second connection for a line leading to the spring accumulator brake cylinders, and a first pneumatic control input, wherein the first connection can be connected to the second connection depending on the pressure on the first pneumatic control input. The first control input is connected to a line connected to a control connection of the trailer vehicle or to a line connected to the reservoir. A valve unit, a pneumatic braking system, a method of operating the same, and a trailer vehicle including the same are also disclosed.

Abstract: A method for operating an electronic brake system in a vehicle having at least two tires on an axle, wherein the vehicle has a center of gravity (SP) with a height (hSP), is disclosed. According to the method, the height (hSP) of the center of gravity (SP) is calculated and used as a parameter by the electronic brake system. An electronic control unit, an electronic brake system, and a vehicle including the same for carrying out the method are also disclosed.

Abstract: A system for transferring data from a wireless network of a vehicle includes a first station for covering a first wireless network, which is secured by encryption and a mobile device. The mobile device is configured for connecting to the first wireless network and to a second wireless network. The first station is provided in the vehicle, wherein access data for connecting to the two wireless networks is available in the mobile device. In the vehicle, data are available, which are transmitted from the first station to the mobile device, and from there to the second station.

Abstract: A method for controlling functions of a vehicle by a remote control unit is provided herein. Signals are transmitted wirelessly between the remote control unit and a station in the vehicle. A data transmission rate depends on a distance between the remote control unit and the station. The data transmission rate is specified. If the data transmission rate is below a defined limit value, the vehicle functions to be controlled are no longer performed or are performed to a restricted extent only and/or the remote control unit emits warning signals.

Abstract: A method for establishing a wireless connection between a first transceiver in a trailer vehicle (12) having an electronic braking system and at least one second transceiver outside of the trailer vehicle (12) is disclosed. The first transceiver is assigned to an electronic control unit (14, 22) in the trailer vehicle (12), which is coupled to a tractor vehicle (10) and a wired connection (15, 16, 17) exists. In the method, a) a trigger signal is generated in the tractor vehicle (10) and transmitted the control unit (14, 22); b) the first transceiver establishes a preliminary connection to the at least one second transceiver, c) the at least one second transceiver indicates via an output unit the preliminary connection, and d) if conditions are met, a permanent connection between the first transceiver and the second transceiver is established.

Abstract: Disclosed is a method for automatically controlling brakes in a trailer vehicle having antilock control, wherein wheel rotational speeds are continuously monitored and evaluated at wheels having antilock control. According to the method, lateral acceleration and longitudinal acceleration of the trailer vehicle are determined. If a predefined, critical lateral acceleration is exceeded, an automatic braking process occurs. A control unit and trailer vehicle are also disclosed in connection with the inventive method.

Abstract: Disclosed is a valve arrangement for aerating spring accumulator brake cylinders in a trailer vehicle with a pneumatic braking system, the valve arrangement having a first connection for a line connected to a reservoir of the trailer vehicle, a second connection for a line leading to the spring accumulator brake cylinders, and a first pneumatic control input, wherein the first connection can be connected to the second connection depending on the pressure on the first pneumatic control input. The first control input is connected to a line connected to a control connection of the trailer vehicle or to a line connected to the reservoir. A valve unit, a pneumatic braking system, a method of operating the same, and a trailer vehicle including the same are also disclosed.

Abstract: Disclosed is a method for controlling brakes in a trailer vehicle comprising a pneumatic brake system, service brakes and an electronic brake system with anti-lock control, wherein at least one axle of the trailer vehicle is fitted with spring-loaded brakes and revolution rate sensors. The method comprises: monitoring with the electronic brake system whether there is a braking demand, monitoring with the electronic brake system whether at least one wheel of at least one axle is locking up, and if there is no braking demand and at least one wheel of the at least one axle is locked while traveling, controlling the pneumatic braking system with the electronic brake system to pressurize the spring-loaded brakes and to brake the trailer vehicle by the service brakes automatically and with anti-lock control. A valve arrangement is also disclosed.

Abstract: In a method for warning a vehicle driver of a risk of the vehicle overturning about its longitudinal axis, a control device detects the current transverse acceleration of the vehicle and emits a warning signal based thereon when a risk of overturning is presented. The warning signal is dependent upon at least one transverse acceleration value, which is critical for overturning, detected by the control device while the vehicle is being driven, and a measurement of the transverse acceleration of the vehicle at which the vehicle would actually overturn about its longitudinal axis. The transverse acceleration value that is critical for overturning is determined automatically based on the vehicle behavior exhibited during driving on a curve.

Abstract: In a method for controlling an electronic braking system for vehicles, in particular for trailer vehicles, signals of wheel-speed sensors are processed. At least signals of one or more sensors that are not wheel-speed sensors are processed for a detection of motion and/or standstill.

Abstract: Disclosed is an electronic brake system for a vehicle, the electronic brake system including one or more electronic components, with at least one electronic control unit. The electronic brake system also includes one or more devices for establishing wireless communications. In the electronic brake system, at least one of the devices for establishing wireless communications is integrated within one of the electronic components or in a unit that contains one of the electronic components.

Abstract: A method for operating an electronic brake system in a vehicle having at least two tires on an axle, wherein the vehicle has a center of gravity (SP) with a height (hSP), is disclosed. According to the method, the height (hSP) of the center of gravity (SP) is calculated and used as a parameter by the electronic brake system. An electronic control unit, an electronic brake system, and a vehicle including the same for carrying out the method are also disclosed.

Abstract: A method for establishing a wireless connection between a first transceiver in a trailer vehicle (12) having an electronic braking system and at least one second transceiver outside of the trailer vehicle (12) is disclosed. The first transceiver is assigned to an electronic control unit (14, 22) in the trailer vehicle (12), which is coupled to a tractor vehicle (10) and a wired connection (15, 16, 17) exists. In the method, a) a trigger signal is generated in the tractor vehicle (10) and transmitted the control unit (14, 22); b) the first transceiver establishes a preliminary connection to the at least one second transceiver, c) the at least one second transceiver indicates via an output unit the preliminary connection, and d) if conditions are met, a permanent connection between the first transceiver and the second transceiver is established.

Abstract: A rear area monitoring device for a vehicle includes one or more distance sensors configured to determine the distance of the rear of the vehicle from an obstacle, and at least one electronic control device configured to evaluate the data collected by the distance sensor(s) and to determine a distance signal that indicates the current distance of the rear of the vehicle from the obstacle. The electronic control device includes at least one input connection for a position sensor configured to detect the position of at least one adjustable vehicle component that, in certain positions, projects beyond the rear of the vehicle. The electronic control device is configured to determine the distance signal depending upon the signal of the position sensor.

Abstract: Disclosed is a method for determining the axle load of a vehicle (10) having at least two tires on an axle. During cornering, the axle load is determined from a difference between wheel speeds at a wheel on the inside of the bend and wheel speeds at a wheel on the outside of the bend and by taking into account the lateral acceleration and track width.