hdl code for the modified aes design Search Results


hdl coder  (MathWorks Inc)
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MathWorks Inc hdl coder
System overview and design steps. A: main steps followed for the model-based design approach. All the architecture has been designed in Simulink, then, exploiting the <t>HDL</t> <t>Coder,</t> <t>Verilog</t> code has been generated and integrated into the original Verilog architecture of the Intan RHS. B: system used for real-time spike detection. A host PC serves as running a Graphical User Interface for online data visualization and control of the Intan RHS parameters. The Intan RHS consists of the core of the system. It is an FPGA-based controller capable of real-time data acquisition and stimulation. By modifying the original code of the controller, a spike detection algorithm has been implemented. The headstage serves as interface between the controller and the electrodes implanted in the animal brain. It amplifies the signal and provides analog to digital conversion.
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System overview and design steps. A: main steps followed for the model-based design approach. All the architecture has been designed in Simulink, then, exploiting the HDL Coder, Verilog code has been generated and integrated into the original Verilog architecture of the Intan RHS. B: system used for real-time spike detection. A host PC serves as running a Graphical User Interface for online data visualization and control of the Intan RHS parameters. The Intan RHS consists of the core of the system. It is an FPGA-based controller capable of real-time data acquisition and stimulation. By modifying the original code of the controller, a spike detection algorithm has been implemented. The headstage serves as interface between the controller and the electrodes implanted in the animal brain. It amplifies the signal and provides analog to digital conversion.

Journal: IEEE Open Journal of Engineering in Medicine and Biology

Article Title: Enabling Model-Based Design for Real-Time Spike Detection

doi: 10.1109/OJEMB.2025.3537768

Figure Lengend Snippet: System overview and design steps. A: main steps followed for the model-based design approach. All the architecture has been designed in Simulink, then, exploiting the HDL Coder, Verilog code has been generated and integrated into the original Verilog architecture of the Intan RHS. B: system used for real-time spike detection. A host PC serves as running a Graphical User Interface for online data visualization and control of the Intan RHS parameters. The Intan RHS consists of the core of the system. It is an FPGA-based controller capable of real-time data acquisition and stimulation. By modifying the original code of the controller, a spike detection algorithm has been implemented. The headstage serves as interface between the controller and the electrodes implanted in the animal brain. It amplifies the signal and provides analog to digital conversion.

Article Snippet: HDL Coder is employed to generate synthesizable Verilog and VHDL code from the Simulink model which can then be programmed onto the FPGA; and (iii) establishing use case for commercially available systems.

Techniques: Generated, Control

Custom architecture overview. A1: Modification of the original Verilog code of the Intan RHS to redirect the dataflow through the custom path without affecting the initial behavior. The “HDL code from Simulink” block consists in the Verilog code generated from the Simulink model. A2: detail of the I/O interface of the Simulink model. This series of inputs and outputs allow communication between the output of the finite state machine and the custom paths. A3: the HDL block provides custom computation which consists of decoding, processing (filtering and spike detection) and encoding steps.

Journal: IEEE Open Journal of Engineering in Medicine and Biology

Article Title: Enabling Model-Based Design for Real-Time Spike Detection

doi: 10.1109/OJEMB.2025.3537768

Figure Lengend Snippet: Custom architecture overview. A1: Modification of the original Verilog code of the Intan RHS to redirect the dataflow through the custom path without affecting the initial behavior. The “HDL code from Simulink” block consists in the Verilog code generated from the Simulink model. A2: detail of the I/O interface of the Simulink model. This series of inputs and outputs allow communication between the output of the finite state machine and the custom paths. A3: the HDL block provides custom computation which consists of decoding, processing (filtering and spike detection) and encoding steps.

Article Snippet: HDL Coder is employed to generate synthesizable Verilog and VHDL code from the Simulink model which can then be programmed onto the FPGA; and (iii) establishing use case for commercially available systems.

Techniques: Modification, Blocking Assay, Generated