Abstract: Method and device for controlling a vacuum apparatus. A method for controlling a vacuum apparatus that applies vacuum to a vacuum accumulator with a pump of a pneumatically operated servo unit of a motor vehicle. The method comprises the steps of determining the pressure in the vacuum accumulator; determining the ambient pressure; adapting a pump control signal to the ambient pressure; comparing the pressure in the vacuum accumulator with an adapted pump control signal; and outputting a pump actuation signal that is a function of the comparison.

Abstract: Method and device for controlling a vacuum apparatus. A method for controlling a vacuum apparatus that applies vacuum to a vacuum accumulator with a pump of a pneumatically operated servo unit of a motor vehicle. The method comprises the steps of determining the pressure in the vacuum accumulator; determining the ambient pressure; adapting a pump control signal to the ambient pressure; comparing the pressure in the vacuum accumulator with an adapted pump control signal; and outputting a pump actuation signal that is a function of the comparison.

Abstract: An autonomous network has a plurality of autonomous terminals, equipped with at least one programmable transceiver, and which are embodied to independently identify frequency ranges provided for a communication link and used to reconfigure the programmable transceiver thereof. One or more technical system states of the network, with which a specific operation of the network is described, is defined. One or more sets of rules are defined for the autonomous terminal, one rule comprising authorized operational states and/or configurations of the autonomous terminals. The effects of the actual operation state and/or configurations of the autonomous terminals on the actual system state of the network is monitored. The sets of rules and/or definition of new rules, which comprise actual operational states or configurations of the autonomous terminals, is adapted when the actual system state of the network differs from the defined system state of the network.

Abstract: A method determines a position of a vehicle. The method includes providing first raw position data from a satellite navigation system pertaining to the vehicle. At least one further vehicle is identified and a communication link is set up to the at least one further vehicle. Second raw position data of the satellite navigation system of the at least one further vehicle is received by way of the established communication link. The position of the vehicle is calculated by differential positioning based on the received second raw position data of the at least one further vehicle and on the first raw position data of the vehicle.

Abstract: A seal for sealing a cardan shaft housing, particularly at a contact surface between an outer ring and a housing lid, has a first sealing element that at least partially covers the contact surface plane to be sealed, as well as a first shape-stabilizing element that is at least partially firmly connected with the first sealing element. A second sealing element is at least partially firmly connected on the shape-stabilizing element.

Abstract: An image capturing system for capturing and transmitting digital video images comprises an image sensor for acquiring digital image data at a particular time, a position control configured to control a position of at least one of the image sensor and the image capturing system based on a mechatronic model, at least one motion sensor configured to acquire position changes of the at least one of the image sensor and the image capturing system, and an output interface via which the acquired image data and associated metadata can be transmitted to an image data processing system, the metadata comprising the following data: up-to-date control data for position control at the particular time of the image data acquisition, an up-to-date parameter set of the mechatronic model at the particular time of the image data acquisition, and accumulated output data of the at least one motion sensor between the particular time of the image data acquisition and a time of a previous image data acquisition.

Abstract: Method and device for controlling a vacuum apparatus. A method for controlling a vacuum apparatus that applies vacuum to a vacuum accumulator with a pump of a pneumatically operated servo unit of a motor vehicle. The method comprises the steps of determining the pressure in the vacuum accumulator; determining the ambient pressure; adapting a pump control signal to the ambient pressure; comparing the pressure in the vacuum accumulator with an adapted pump control signal; and outputting a pump actuation signal that is a function of the comparison.

Abstract: In a method of data processing within a controller ensuring that voting operations are reliably performed error free and in a corresponding controller unit, the input data are characteristic for the particular application where voting occurs. Voting whether or not the incoming data is correct involves a voting comparison method, a voting average method, and checking for a difference being within a certain range. The time dependent signature indicates correctly transmitted input data. Voting, based on the reviewed signature characteristics is an encoded operation. The time dependent signature indicates the data is coming from a correct source, has been a modification, and correct timing slides. Voting whether or not the incoming data is correct is performed in an encoded manner. A correct data is transmitted to be further used to actuate an actuator. The erroneous data is transmitted to be further sent to a fail safe guard.

Abstract: A respective agent platform in network elements and producer-specific agents that are installed directly on platform or by way of agent proxies of agent providers. The agents then receive raw information on arising operating errors by way of a defined interface of the agent platform, and, together with producer-specific information on the respective terminals or types of terminal that are known only to the respective producer, from corresponding compressed decision information for evaluating cases of error and/or for optimizing reconfiguration decisions. The agents then provide the information for the network element or the network operator and/or the agent provider or the terminal producer, via the defined interface. This leads to a higher reliability of the interoperability of terminals and network elements in mobile radio networks including reconfigurable terminals.

Abstract: According to the method for configuring an information system (1), components (2) are provided for the information system (1) and component-specific error susceptibility data (3) on the individual components (2). For a given system configuration (5), error susceptibility information (7) is determined for the information system (1) in this given system configuration (5) as a function of the component-specific error susceptibility data (3). The error susceptibility information (7) is evaluated with reference to given evaluation criteria (8). In a subsequent step, the information system (1) is configured in the given system configuration (5) if the error susceptibility information (7) satisfies the given evaluation criteria (8). By means of the method, it is achieved that only system configurations are accepted that satisfy requirements specified by the evaluation criteria (8) with respect to the reliability of the information system (1).

Abstract: A respective agent platform in network elements and producer-specific agents that are installed directly on platform or by way of agent proxies of agent providers. The agents then receive raw information on arising operating errors by way of a defined interface of the agent platform, and, together with producer-specific information on the respective terminals or types of terminal that are known only to the respective producer, from corresponding compressed decision information for evaluating cases of error and/or for optimizing reconfiguration decisions. The agents then provide the information for the network element or the network operator and/or the agent provider or the terminal producer, via the defined interface. This leads to a higher reliability of the interoperability of terminals and network elements in mobile radio networks including reconfigurable terminals.

Abstract: A seal for sealing a cardan shaft housing, particularly at a contact surface between an outer ring and a housing lid, has a first sealing element that at least partially covers the contact surface plane to be sealed, as well as a first shape-stabilizing element that is at least partially firmly connected with the first sealing element. A second sealing element is at least partially firmly connected on the shape-stabilizing element.

Abstract: A respective agent platform in network elements and producer-specific agents that are installed directly on platform or by way of agent proxies of agent providers. The agents then receive raw information on arising operating errors by way of a defined interface of the agent platform, and, together with producer-specific information on the respective terminals or types of terminal that are known only to the respective producer, from corresponding compressed decision information for evaluating cases of error and/or for optimizing reconfiguration decisions. The agents then provide the information for the network element or the network operator and/or the agent provider or the terminal producer, via the defined interface. This leads to a higher reliability of the interoperability of terminals and network elements in mobile radio networks including reconfigurable terminals.

Abstract: A fault-tolerance management of a software component is disclosed. A number of instances of the software component are executed in at least somewhat different execution environments. A local error susceptibility register and a global error susceptibility register are assigned to each software component. An error of first instance of the software component is detected. The local error susceptibility register of the first instance is updated based on the detected error and the content of the local error susceptibility register of the first instance. The global error susceptibility register of each instance is also updated based on the detected error and the content of the global error susceptibility register of each instance. The difference between the respective local error susceptibility register and the respective global error susceptibility register is determined, and the fault tolerance value of the software component in the respective execution environment is determined based on the determined difference.

Abstract: In a shaft bearing comprising outer and inner parts with an elastic element carrier disposed therebetween, the elastic element carrier includes first and second elastic elements disposed on opposite radial sides thereof and is movable with respect to one of the outer and inner parts in axial direction and with respect to the other of the outer and inner parts in radial direction, and the elastic elements disposed between the element carrier and the outer, and respectively, the inner parts have selectable elasticities so as to provide for distinct selectible radial and axial resiliencies of the shaft bearing.

Abstract: An autonomous network has a plurality of autonomous terminals, equipped with at least one programmable transceiver, and which are embodied to independently identify frequency ranges provided for a communication link and used to reconfigure the programmable transceiver thereof. One or more technical system states of the network, with which a specific operation of the network is described, is defined. One or more sets of rules are defined for the autonomous terminal, one rule comprising authorized operational states and/or configurations of the autonomous terminals. The effects of the actual operation state and/or configurations of the autonomous terminals on the actual system state of the network is monitored. The sets of rules and/or definition of new rules, which comprise actual operational states or configurations of the autonomous terminals, is adapted when the actual system state of the network differs from the defined system state of the network.

Abstract: A method is disclosed for the dynamic service configuration of a technical system.

Abstract: Access-protected memory zones in network elements are localized in an operator's network that supporting the reconfiguration of SDR terminals in combination with protected data transmission methods which include methods for authenticating and authorizing the communication partners and for communicating in a protected manner, especially to protect integrity and confidentiality. Such access-protected data is provided by the terminal and is transmitted to the radio access network in the framework of negotiations and is temporarily stored therein or is generated directly in the RAN in the framework of processes related to the terminal. The generation and management of access-protected memory zones by the network operator result in a massive relief of the load to which the air interface is subject while also significantly alleviating the network infrastructure with regard to signaling.

Abstract: A fault-tolerance management of a software component is disclosed. A number of instances of the software component are executed in at least somewhat different execution environments. A local error susceptibility register and a global error susceptibility register are assigned to each software component. An error of first instance of the software component is detected. The local error susceptibility register of the first instance is updated based on the detected error and the content of the local error susceptibility register of the first instance. The global error susceptibility register of each instance is also updated based on the detected error and the content of the global error susceptibility register of each instance. The difference between the respective local error susceptibility register and the respective global error susceptibility register is determined, and the fault tolerance value of the software component in the respective execution environment is determined based on the determined difference.