Abstract: A method for generating an FPGA implementation based on an FPGA design serving as an FPGA model and/or a hardware description, including the steps of synthesizing a net list from the FPGA design and generating the FPGA implementation from the net list. The method includes searching for a similar FPGA implementation, the step of generating the FPGA implementation from the net list takes place using the similar FPGA implementation, the method includes a step of generating a graph-based representation based on the FPGA design, and the step of searching for a similar FPGA implementation comprises comparing the graph-based representation of the FPGA design with a graph-based representation of the at least one similar FPGA implementation. A method for generating a bit stream based on an FPGA design is also provided, serving as an FPGA model and/or a hardware description.

Abstract: Computer network having a plurality of clocks that are synchronized with one another, that are distributed among multiple participants in the computer network, and from which a global system time of the computer network can be read out. The computer network includes a first synchronizing signal transmitter for a first synchronizing signal and a second synchronizing signal transmitter for a second synchronizing signal, and every participant can be equipped to synchronize the value of a locally stored variable quantity with a global value on the basis of the first synchronizing signal or the second synchronizing signal, and in doing so to take into account a time lag of the synchronizing signal.

Abstract: A method for detecting errors of a first field-programmable gate array (FPGA) program includes: receiving, by a monitoring program executed on a processor connected to an FPGA on which the first FPGA program is executed, a signal value read out from the first FPGA program; and comparing, by the monitoring program executed on the processor, the signal value to a reference value from a source other than the first FPGA program in order to detect errors of the first FPGA program.

Abstract: A method for creating an FPGA netlist generated from an FPGA source code and at least one shadow register. The FPGA source code defines at least one function and at least one signal. The shadow register is assigned to the at least one signal, and is arranged and provided to store the value of the assigned signal at runtime. An option for reading out the stored signal value at runtime is provided. The function defined in the FPGA source code is not changed by the shadow register. The function described by the FPGA source code is executed by the FPGA, and a functional decoupling of the shadow register from the function described in the FPGA source code is provided. Via the decoupling, the shadow register maintains the signal value stored at the time of the decoupling while the function described in the FPGA source code is being executed.

Abstract: A method for generating an FPGA implementation based on an FPGA design serving as an FPGA model and/or a hardware description, including the steps of synthesizing a net list from the FPGA design and generating the FPGA implementation from the net list. The method includes searching for a similar FPGA implementation, the step of generating the FPGA implementation from the net list takes place using the similar FPGA implementation, the method includes a step of generating a graph-based representation based on the FPGA design, and the step of searching for a similar FPGA implementation comprises comparing the graph-based representation of the FPGA design with a graph-based representation of the at least one similar FPGA implementation. A method for generating a bit stream based on an FPGA design is also provided, serving as an FPGA model and/or a hardware description.

Abstract: A method for generating FPGA code based on an FPGA model with at least one signal value that is modeled as a constant. A constant is inserted with a predefined signal value in the FPGA model. A switching variable is set in the FPGA model for switching between a normal mode and a calibration mode for the FPGA code. The FPGA code is generated for the FPGA model having the implementation of the constants in the FPGA code, wherein the implementation of the constants when the switching variable is set for normal mode includes the implementation of the constants as a fixed value in the FPGA code, and the implementation of the constants when the switching variable is set for calibration mode includes the implementation of the constants as a modifiable signal value in the FPGA code. A method for calibrating an FPGA model is also provided.

Abstract: A method for changing a signal value of an FPGA at runtime, including the steps of loading an FPGA hardware configuration with at least one signal value onto the FPGA, running the FPGA hardware configuration on the FPGA, setting the signal value for transfer to the FPGA, determining writeback data from the signal value, writing the writeback data as status data to a configuration memory of the FPGA, and transferring the status data from the configuration memory to the functional level of the FPGA. A method is also provided for performing an FPGA build, including the steps of creating an FPGA hardware configuration with a plurality of signal values, arranging signal values in adjacent areas of the FPGA hardware configuration, ascertaining memory locations of a configuration memory for status data of the plurality of signal values on the basis of the FPGA hardware configuration, and creating a list containing signal values.

Abstract: A method for operating a real-time-capable simulation network having multiple network nodes for computing a simulation model. The network nodes are connected to one another via a serial data bus, and the network nodes exchange data via data bus messages. At least one event-driven task of the simulation model is implemented on a first network node, and a nondeterministic triggering event is detected by a second network node. The second network node communicates the detected triggering event to the first network node and the first network node computes the event-driven task. A fast response time is achieved by the means that a detection signal is sent from the second network node in the form of a multicast data bus message or a broadcast data bus message to multiple network nodes of the simulation network or to all network nodes of the simulation network over the serial data bus.

Abstract: A method for creating an allocation map, wherein the allocation map is created based on an FPGA source code, wherein the source code uses at least a first signal at a first location, wherein at least a first register is mapped to the first signal, wherein in the allocation map, the first signal and the first register are listed as mapped to one another, wherein a second signal is used at a second location in the FPGA source code, wherein it is automatically detected that the value of the second signal can be determined from the value of the first signal according to a first calculation rule, wherein in the allocation map, the second signal, the first register and the first calculation rule are listed as mapped to one another.

Abstract: A method for reading variables from a Field Programmable Gate Array (FPGA) at runtime includes: calculating, in the FPGA, a first variable, wherein the first variable is associated with a first shadow register and a second shadow register, and wherein the first variable is associated with a first measurement grid and with a second measurement grid; synchronously storing, at a first point in time, all variables associated with the first measurement grid in shadow registers associated with the respective variables; synchronously storing, at a second point in time, all variables associated with the second measurement grid in shadow registers associated with the respective variables; and reading out the shadow registers independently of one another.

Abstract: A method for detecting the topology of electrical wiring between at least two field-programmable gate arrays (FPGAs) includes implementing a first receive register on a second interface pin; implementing a first send register on a first driver; activating the first driver via a first activation signal; emitting, by the first driver, a first signal, wherein the first signal is defined by the first send register; reading out, by a first receive register, whether the first signal is received at the second interface pin; and allocating the second interface pin to the first interface pin if the first signal from the first driver is received at the second interface pin.

Abstract: A method for automatically determining models signals of an FPGA program which are readable from the FPGA with the aid of a readback following an FPGA build, including the following steps: generating an FPGA model and generating an FPGA code from the FPGA model, the method comprising the additional step of an automatic analysis for the purpose of identifying signals which are readable from the FPGA with the aid of a readback, prior to the completion of the step of generating the FPGA code from the FPGA model, and the method comprises the step of outputting signals which are readable from the FPGA with the aid of a readback. A data processing device is also provided for carrying out the method.

Abstract: A method for detecting the topology of electrical wiring between at least two field-programmable gate arrays (FPGAs) includes implementing a first receive register on a second interface pin; implementing a first send register on a first driver; activating the first driver via a first activation signal; emitting, by the first driver, a first signal, wherein the first signal is defined by the first send register; reading out, by a first receive register, whether the first signal is received at the second interface pin; and allocating the second interface pin to the first interface pin if the first signal from the first driver is received at the second interface pin.

Abstract: A method for determining the power consumption of a programmable logic device, in which at least one configuration parameter is determined in accordance with a predefined configuration and at least one device parameter is determined in accordance with the programmable logic device. The predefined configuration is designed such that the programmable logic device exchanges data with a computing unit through at least one interface pin and receives data from at least one signal source and/or sends it to at least one signal receiver through at least one interface pin. At least one data characteristic of the data exchanged between the computing unit and the programmable logic device as well as at least one signal characteristic of the data received from the at least one signal source and/or sent to the at least one signal receiver are determined.

Abstract: A method for accessing a signal value of an FPGA at runtime, including the steps of loading an FPGA hardware configuration into the FPGA, executing the FPGA hardware configuration in the FPGA, requesting a signal value of the FPGA, sending status data from a functional level of the FPGA to a configuration memory in its configuration level, reading the status data from the configuration memory as readback data, and determining the signal value of the readback data. A method is also provided for making an FPGA build, based on an FPGA model, using a hardware description language, including the steps of creating an FPGA hardware configuration, identifying memory locations of a configuration memory for status data of at least one signal value based on the FPGA hardware configuration, and creating a list with signal values accessible at runtime and the memory locations corresponding thereto.

Abstract: A method for generating a netlist of an FPGA program. The model of the FPGA program is composed of at least two components, each component being assigned a separate partition on the FPGA. An independent build is carried out for each component and an overall classification is generated from the components, wherein the build jobs are automatically started after a trigger event and the trigger event is a saving of a component, the exiting of a component of the design, or a time-controlled, automated initiation of a build.

Abstract: A method for creating an FPGA netlist generated from an FPGA source code and at least one shadow register. The FPGA source code defines at least one function and at least one signal. The shadow register is assigned to the at least one signal, and is arranged and provided to store the value of the assigned signal at runtime. An option for reading out the stored signal value at runtime is provided. The function defined in the FPGA source code is not changed by the shadow register. The function described by the FPGA source code is executed by the FPGA, and a functional decoupling of the shadow register from the function described in the FPGA source code is provided. Via the decoupling, the shadow register maintains the signal value stored at the time of the decoupling while the function described in the FPGA source code is being executed.

Abstract: Method for temporally synchronizing the output of signals and/or temporally synchronizing the processing of captured signals on a plurality of input and/or output channels of an electronic circuit, comprising the following steps: (a) combining a number of channels, in particular a proportion of all channels of the circuit, to form a logical group; (b) retrieving the channel latency of each channel belonging to the group from a data source; (c) determining the greatest channel latency from all retrieved channel latencies and at least temporarily storing the greatest channel latency as the group latency; (d) for each channel belonging to the group: determining the temporal difference between the group latency and the retrieved channel latency of the respective channel and storing the determined difference as a channel-associated latency offset in a memory, in particular a memory of the circuit; and (e) influencing the signal propagation via a respective channel on the basis of at least its respective stored lat

Abstract: A method for accessing signals of a programmable logic device having a functional level and a configuration level at run time when the programmable logic device is executing a predefined configuration. An access to at least one signal value that has a number of bits is requested. The individual bits in the configuration are each located in an address unit with one address offset apiece such that one or more bits of a signal value are located in one address unit. A bitwise access to the requested signal values takes place, wherein the accesses to the individual bits are sorted as a function of the address unit containing the applicable bit in such a manner that the accesses to all bits located in an address unit take place in sequence as a function of the address offset, independently of the signal containing the applicable bit.

Abstract: A method for determining the power consumption of a programmable logic device, in which at least one configuration parameter is determined in accordance with a predefined configuration and at least one device parameter is determined in accordance with the programmable logic device. The predefined configuration is designed such that the programmable logic device exchanges data with a computing unit through at least one interface pin and receives data from at least one signal source and/or sends it to at least one signal receiver through at least one interface pin. At least one data characteristic of the data exchanged between the computing unit and the programmable logic device as well as at least one signal characteristic of the data received from the at least one signal source and/or sent to the at least one signal receiver are determined.