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Update joint equations tutorial outputs and metadata
Refreshed code cell outputs, execution counts, and execution metadata in the joint_equations.ipynb tutorial. Added print outputs for the second-order system and Jansen-Rit model examples, and updated function signatures and object references to reflect current execution results.
Copy file name to clipboardExpand all lines: docs_classic/tutorial_toolbox/joint_equations.ipynb
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"id": "c9df7780",
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"metadata": {},
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"source": [
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"In a [dynamical system](../tutorial_building/dynamical_systems.ipynb), there may be multiple variables that change dynamically over time. Sometimes these variables are interconnected, and updating one variable requires others as the input. For example, in the widely known Hodgkin\u2013Huxley model, the variables $V$, $m$, $h$, and $n$ are updated synchronously and interdependently (please refer to [Building Neuron Models](../tutorial_building/neuron_models.ipynb)for details). To achieve higher integral accuracy, it is recommended to use ``brainpy.JointEq`` to jointly solving interconnected differential equations."
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"In a [dynamical system](../tutorial_building/dynamical_systems.ipynb), there may be multiple variables that change dynamically over time. Sometimes these variables are interconnected, and updating one variable requires others as the input. For example, in the widely known Hodgkin–Huxley model, the variables $V$, $m$, $h$, and $n$ are updated synchronously and interdependently (please refer to [Building Neuron Models](../tutorial_building/neuron_models.ipynb)for details). To achieve higher integral accuracy, it is recommended to use ``brainpy.JointEq`` to jointly solving interconnected differential equations."
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