Siemens Aktiengesellschaft

Siemens Energy Global Gmbh & Co. Kg

Markus Sauer

Andreas Graichen

Hans-Peter Huth

Thomas Jetzfellner

Florian Zeiger

Jerry Fornander

Nejc Zupan

Tobias Aigner

Monika Sturm

Johan Lindstam

Saurabh Narayan Singh

Asa MacWilliams

A device for adding equipment data of a piece of equipment into a distributed database system includes a first communication interface designed to receive database configuration information from the distributed database system, a second communication interface coupled to the piece of equipment and designed to receive equipment data a configuration module designed to select at least one configuration parameter for configuring a data providing module, test at least one selected configuration parameter on the basis of the database configuration information, output the test result, and configure the data providing module, an identification module designed to provide identification information, a registration module designed to register the piece of equipment on the basis of the identification information for the distributed database system, and a data providing module designed to add the equipment data with respect to the identification information into the distributed database.

Device and method for adding equipment data into a distributed database system

Provided is a method for operating a field device. The field device is configured for interacting with a control device. According to the method, a base key is received from a key generation device. A current constraint parameter relating to a predefined operating constraint for operating the field device is determined. A key is generated based on the base key and the current constraint parameter. The field device interacts with the control device using the generated key.

Constrained operation of a field device

In a computer-implemented method for storing data in a network of linked computing units () using a distributed transaction database (GDB), a distributed transaction database (GDB) in the form of a distributed graph database formed using nodes is used, and data is stored in at least one node (N) of the graph database, wherein the node (N) is stored using a real sub-quantity of the computing units () of the network. The computer program product can be loaded directly into a storage device of an electronic computing unit () and has program means in order to early out the steps of the method when the program is ran in a computing unit. The network of linked computing units () stores a distributed transaction database (GDB) in the form of a distributed graph database comprising nodes (N) in which data is stored according to such a method.

Computer-implemented method for storing data using a distributed transaction database, computer program product, and network

Various embodiments include a control device for setting up and/or providing a working environment with at least one performance unit to perform at least one factory task by means of machines comprising: a resource management unit programmed to request resources necessary for the working environment; and a comparison unit programmed to compare the requested resources with at least one resource agreed upon in a binding agreement stored in a distributed database and to approve the requested resource in dependence on the comparison result. The control device is programmed to set up and/or provide the working environment with at least one compared and approved resource. The at least one performance unit is programmed to coordinate the checking for complete factory task performance by one or more units involved in the working environment.

Device and method for setting up and/or providing a working environment

The possibility of using a blockchain for industrial applications, in particular in the manufacturing sector, is provided. For example, time requirements are specified by the configurability and the selectability of the validation and/or transmission. The distributed database system only validates those transactions which are executed by a corresponding blockchain-based manufacturing system, by a number of nodes confirming that they execute the transactions. The provided is suitable in particular for blockchain IoT applications in which at least one device is intended to execute some kind of control action, and the execution is subject to certain requirements.

Method and control system for controlling an execution of transactions

A product containing an intelligent control provides increased safety and reliability, wherein the product contains an active component, wherein the active component is adapted to monitor or control the use of the component, wherein the active component is adapted to send data to and/or receive data from a distributed database. A method of manufacturing, a machine containing the product, and a computer program product are provided.

Active am manufactured product, method of manufacturing and machine

A sensor data assembly providing a secured data storage for monitored data containing sensor data acquired by at least one sensor, a processing unit adapted to provide a cryptographic checksum of the monitored data and/or the sensor data acquired by the sensor, a distributed database and a first connection adapted to, at least temporarily, connect the sensor and the processing unit. A method provides manipulation proof monitored data containing sensor data of a sensor of the sensor data assembly.

Sensor data assembly and manufacturing device

A sensor control assembly and method providing a secured sensor data and an optimized handling of the sensor including a sensor, a first processing unit adapted to provide a cryptographic checksum of sensor data, a distributed database, a second processing unit adapted to verify the sensor data, and a third processing unit adapted to determine the demand for calibration. A manufacturing device contains at least a part of the sensor control assembly.

Sensor control assembly and manufacturing device

The disclosure is directed to providing virtual network functions to a customer node by a communication system with a provider node in an automatic, traceable, and auditable way. The provider node includes a retrieving module, a validation module, and a deployment module. The retrieving module is configured to retrieve a notification signal, wherein the notification signal is indicative of a selected one of a plurality of virtual network functions and the customer node. The validation module is configured to establish service level agreement data and to validate the agreement service level data, based on the notification signal. The deployment module is configured to selectively transmit a deployment signal to a communication node depending on the validation of the service level agreement data for providing the selected virtual network function to the customer node.

Communication system, provider node, communication node, and method for providing a virtual network function to a customer node

According to various examples, an operational constraint associated with an operational function&#x2014;e.g., a virtual network function&#x2014;implemented on a field device can be configured. According to further examples, the fulfillment of the operational constraint can be tracked. For these purposes, a distributed database is used, e.g., a blockchain.

Operational constraints for operational functions of field devices

The method provides detection of a plurality of spatial parameters which are assigned to one or both forearms of an operator. Processing markers generated from the spatial parameters are visualized in a virtual scene. The operator activates processing markers and carries out processing operations by changing the position of his or her forearm(s). After the processing operations are complete, the operator deactivates the assignment between processing marker and manipulation marker by rotating a forearm. A particular advantage of the method disclosed herein compared with conventional methods lies in the activation and deactivation using the rotation of a forearm of the operator. A rotation of the wrist may be carried about largely independently of the direction in which the forearm is pointing. In this manner, the operator may use shoulder rotation and elbow flexion to change the position of the forearm in order to change spatial parameters for a processing marker, while processing operations may be deactivated and/or activated by an independent rotation of the forearm.

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Munich, Germany

Markus Sauer