release: merge at 2.10.0 release

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Spell Check Report

AntennaCharacteristics.ipynb:

Cell 61, Line 1: 'TerminalComponentModelerData'
  > The dictionary stored in the `data` attribute of the `TerminalComponentModelerData` instance contains all the monitor data. Use the respective port name as the dictionary key to access the data associated with the desired port excitation.

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Autograd26Smatrix.ipynb:

Cell 8, Line 5: 'staticd'
  > We first define the overall geometry as a `td.Box` and also the number of pixels in x and y staticd on our design region resolution.
Cell 16, Line 3: 'parmeterization'
  > Below we'll import a helper function to set this up automatically by looking at a base `Simulation` object and a parmeterization corresponding to the design region `Structure`.
Cell 34, Line 7: 'beginnning'
  > # we will just have the same projection strength for beginnning and end in this case
Cell 41, Line 1: 'top-left', 'top-right'
  > The field plots below show the device operating at the central design frequency. We can clearly see the crossover behavior: light entering the top-left port is efficiently routed to the bottom-right port, and light from the bottom-left is routed to the top-right.

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EdgeFeedPatchAntennaBenchmark.ipynb:

Cell 45, Line 1: 'TerminalComponentModelerData'
  > The downloaded data is a `TerminalComponentModelerData` object. Use the `smatrix()` command to obtain the S-matrix.

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WPDHarmonicSuppression1.ipynb:

Cell 2, Line 1: 'roll-off'
  > The power divider is a key component in modern wireless communications systems. It is usually subject to key performance metrics such as low insertion loss, minimal crosstalk between output ports, and a small footprint. In addition, low pass or bandpass filters are typically incorporated in order to suppress unwanted harmonics and noise in wireless signals. These filters should have a sharp response, quantified by the roll-off rate (ROR), and a wide stopband.
Cell 2, Line 3: '-part', 'Moloudian'
  > In this 3-part notebook series, we will simulate various stages of the design process of a Wilkinson power divider (WPD) created by Moloudian et al in [1].
Cell 2, Line 4: 'roll-off'
  > * In part one (this notebook), we start with a simple low pass filter design and improve its filter response in order to achieve a higher roll-off rate (ROR).
Cell 6, Line 1: 'FreqRange'
  > The target cutoff frequency of the low pass filter is 1.8 GHz (within the GSM band) and the simulation will cover 0.1 to 8 GHz.  The `bandwidth` of the simulation is defined using the `FreqRange` utility class.
Cell 25, Line 1: 'quarter-wavelength'
  > By default, the simulation boundary is open (PML) on all sides. We add quarter-wavelength padding on all sides to ensure the boundaries do not encroach on the near-field.
Cell 42, Line 1: 'TerminalComponentModelerData'
  > The `TerminalComponentModelerData` instance returned by `tidy3d.web.run()` stores the monitor data for each port in a dictionary in the `data` attribute. Use the corresponding port name to access it.
Cell 44, Line 1: 'stopbands'
  > The in-plane field magnitude is plotted below at `f_min` and `f0`, showing a clear difference between the pass- and stopbands.
Cell 53, Line 1: 'Roll-off'
  > #### Roll-off rate
Cell 54, Line 1: 'roll-off'
  > The roll-off rate (ROR) is a figure of merit that quantifies the sharpness of the filter response. It is calculated by
Cell 86, Line 1: 'stopbands'
  > As before, we plot the field amplitude profile within the pass- and stopbands.
Cell 93, Line 1: 'Roll-off'
  > #### Roll-off rate

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WPDHarmonicSuppression2.ipynb:

Cell 2, Line 1: 'roll-off'
  > The power divider is a key component in modern wireless communications systems. It is usually subject to key performance metrics such as low insertion loss, minimal crosstalk between output ports, and a small footprint. In addition, low pass or bandpass filters are typically incorporated in order to suppress unwanted harmonics and noise in wireless signals. These filters should have a sharp response, quantified by the roll-off rate (ROR), and a wide stopband.
Cell 2, Line 3: '-part', 'Moloudian'
  > In this 3-part notebook series, we will simulate various stages of the design process of a Wilkinson power divider (WPD) created by Moloudian et al in [1].
Cell 38, Line 1: 'TerminalComponentModelerData'
  > The simulation monitor data is stored as `dict` values in the `data` attribute of the `TerminalComponentModelerData` instance. Use the port name as the key to access the data associated with the respective port excitation.
Cell 40, Line 1: 'stopbands'
  > The field amplitude profiles at the minimum and middle frequency points are shown below. The points lie respectively within the pass- and stopbands.
Cell 45, Line 1: 'rolloff'
  > The insertion and return losses are plotted below. While the modified filter presents a sharp rolloff and a deep resonance above 2 GHz, the signal suppression is less than ideal at higher frequencies (>5 GHz).
Cell 57, Line 1: 're-use'
  > We will re-use the monitor defined in the previous section. The lumped ports are shifted slightly to account for the new substrate size.

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WPDHarmonicSuppression3.ipynb:

Cell 2, Line 1: 'roll-off'
  > The power divider is a key component in modern wireless communications systems. It is usually subject to key performance metrics such as low insertion loss, minimal crosstalk between output ports, and a small footprint. In addition, low pass or bandpass filters are typically incorporated in order to suppress unwanted harmonics and noise in wireless signals. These filters should have a sharp response, quantified by the roll-off rate (ROR), and a wide stopband.
Cell 2, Line 3: '-part', 'Moloudian'
  > In this 3-part notebook series, we will simulate various stages of the design process of a Wilkinson power divider (WPD) created by Moloudian et al in [1].
Cell 23, Line 1: 'feedlines'
  > # WPD feedlines (top half only)
Cell 53, Line 1: 'TerminalComponentModelerData'
  > The simulation monitor data is stored as `dict` values in the `data` attribute of the `TerminalComponentModelerData` instance. Use the port name as the key to access the data associated with the respective port excitation.
Cell 58, Line 1: 'third-party'
  > As a basis for comparison, we implement a conventional WPD using the `scikit-rf` third-party package.
Cell 78, Line 1: 'Moloudian'
  > In this notebook, we simulated the full WPD design presented by Moloudian et al. in [1] and compared its performance to a conventional WPD. The improved WPD features much better signal rejection in the stopband while providing comparable performance at the operating frequency. As noted by the authors, harmonic suppression is a particularly useful feature in modern circuits featuring non-linear elements such as detectors, amplifiers, mixers, and phase shifters.

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Checked 41 notebook(s). Found spelling errors in 6 file(s).
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