Implement the Poynting vector calculation #145
Annotations
6 warnings
docs/photonics/examples/effective_area.py#L211
[blackfmt] reported by reviewdog 🐶
Raw Output:
docs/photonics/examples/effective_area.py:211:-ax[0].set_title(f"Poynting vector $S_z$\nfor h = {h_fig_h}μm & w = {w_fig_h}nm\n(Reproduction of Fig.1.h)")
docs/photonics/examples/effective_area.py:212:-ax[0].set_xlim(-w_fig_h*1e-3/2 - 0.1, w_fig_h*1e-3/2 + 0.1)
docs/photonics/examples/effective_area.py:211:+ax[0].set_title(
docs/photonics/examples/effective_area.py:212:+ f"Poynting vector $S_z$\nfor h = {h_fig_h}μm & w = {w_fig_h}nm\n(Reproduction of Fig.1.h)"
docs/photonics/examples/effective_area.py:213:+)
docs/photonics/examples/effective_area.py:214:+ax[0].set_xlim(-w_fig_h * 1e-3 / 2 - 0.1, w_fig_h * 1e-3 / 2 + 0.1)
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docs/photonics/examples/effective_area.py#L215
[blackfmt] reported by reviewdog 🐶
Raw Output:
docs/photonics/examples/effective_area.py:215:-ax[0].axis('off')
docs/photonics/examples/effective_area.py:217:+ax[0].axis("off")
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docs/photonics/examples/effective_area.py#L218
[blackfmt] reported by reviewdog 🐶
Raw Output:
docs/photonics/examples/effective_area.py:218:- basis_fig_h.mesh.restrict(subdomain).draw(ax=ax[0], boundaries_only=True, color="k", linewidth=1.0)
docs/photonics/examples/effective_area.py:220:+ basis_fig_h.mesh.restrict(subdomain).draw(
docs/photonics/examples/effective_area.py:221:+ ax=ax[0], boundaries_only=True, color="k", linewidth=1.0
docs/photonics/examples/effective_area.py:222:+ )
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docs/photonics/examples/effective_area.py#L221
[blackfmt] reported by reviewdog 🐶
Raw Output:
docs/photonics/examples/effective_area.py:221:-ax[1].set_title(f"Poynting vector $S_z$\nfor h = {h_fig_f}μm & w = {w_fig_f}nm\n(Reproduction of Fig.1.f)")
docs/photonics/examples/effective_area.py:222:-ax[1].set_xlim(-w_list[idx_fig_f]*1e-3/2 - 0.1, w_list[idx_fig_f]*1e-3/2 + 0.1)
docs/photonics/examples/effective_area.py:225:+ax[1].set_title(
docs/photonics/examples/effective_area.py:226:+ f"Poynting vector $S_z$\nfor h = {h_fig_f}μm & w = {w_fig_f}nm\n(Reproduction of Fig.1.f)"
docs/photonics/examples/effective_area.py:227:+)
docs/photonics/examples/effective_area.py:228:+ax[1].set_xlim(-w_list[idx_fig_f] * 1e-3 / 2 - 0.1, w_list[idx_fig_f] * 1e-3 / 2 + 0.1)
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docs/photonics/examples/effective_area.py#L225
[blackfmt] reported by reviewdog 🐶
Raw Output:
docs/photonics/examples/effective_area.py:225:-ax[1].axis('off')
docs/photonics/examples/effective_area.py:231:+ax[1].axis("off")
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docs/photonics/examples/effective_area.py#L228
[blackfmt] reported by reviewdog 🐶
Raw Output:
docs/photonics/examples/effective_area.py:228:- basis_fig_f.mesh.restrict(subdomain).draw(ax=ax[1], boundaries_only=True, color="k", linewidth=1.0)
docs/photonics/examples/effective_area.py:234:+ basis_fig_f.mesh.restrict(subdomain).draw(
docs/photonics/examples/effective_area.py:235:+ ax=ax[1], boundaries_only=True, color="k", linewidth=1.0
docs/photonics/examples/effective_area.py:236:+ )
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