update docs

.github/release-drafter.yml

@@ -1,6 +1,6 @@
 name-template: '$RESOLVED_VERSION'
 tag-template: '$RESOLVED_VERSION'
-change-template: '- $TITLE [#$NUMBER](https://github.com/flaport/sax/pull/$NUMBER)'
+change-template: '- $TITLE [#$NUMBER](https://github.com/gdsfactory/sax/pull/$NUMBER)'
 template: |
   # What's Changed
 

.github/workflows/docs.yml

@@ -43,14 +43,6 @@ jobs:
         uses: astral-sh/setup-uv@v5
       - name: Install Just
         uses: taiki-e/install-action@just
-      - name: Install Rust
-        uses: actions-rs/toolchain@v1
-        with:
-          toolchain: stable
-          override: true
-          components: rustfmt, clippy, cargo
-      - name: Install svgbob
-        run: cargo install svgbob_cli
       - name: Build docs
         run: just dev nbdocs docs
       - name: Upload artifact [site]

README.md

@@ -17,7 +17,7 @@ dive in...
 
 ## Quick Start
 
-[Full Quick Start page](https://flaport.github.io/sax/nbs/examples/01_quick_start) - [Documentation](https://flaport.github.io/sax).
+[Full Quick Start page](https://gdsfactory.github.io/sax/nbs/examples/01_quick_start) - [Documentation](https://gdsfactory.github.io/sax).
 
 Let's first import the SAX library, along with JAX and the JAX-version of numpy:
 
@@ -119,7 +119,7 @@ plt.show()
 ![output](docs/assets/output_10_0.png)
 
 Those are the basics. For more info, check out the **full**
-[SAX Quick Start page](https://flaport.github.io/sax/nbs/examples/01_quick_start) or the rest of the [Documentation](https://flaport.github.io/sax).
+[SAX Quick Start page](https://gdsfactory.github.io/sax/nbs/examples/01_quick_start) or the rest of the [Documentation](https://gdsfactory.github.io/sax).
 
 ## Installation
 
@@ -138,4 +138,4 @@ pip install 'sax[dev]'
 
 ## License
 
-Copyright © 2025, Floris Laporte, [Apache-2.0 License](https://github.com/flaport/sax/blob/master/LICENSE)
+Copyright © 2025, Floris Laporte, [Apache-2.0 License](https://github.com/gdsfactory/sax/blob/main/LICENSE)

docs/models_rf.md

@@ -1,23 +1,23 @@
 # Radio frequency (RF) Models
 
-For more information on these RF models, see Ref. [@pozar-2012].
+For more information on these RF models, see Pozar (2012).
 
 ## Coplanar Waveguides (CPW) and Microstrips
 
 Sax includes JAX-jittable functions for computing the characteristic impedance, effective permittivity, and propagation constant of coplanar waveguides and microstrip lines. All results are obtained analytically so the functions compose freely with JAX transformations (`jit`, `grad`, `vmap`, etc.).
 
 ### CPW Theory
 
-The quasi-static CPW analysis follows the conformal-mapping approach described by Simons [@simonsCoplanarWaveguideCircuits2001] (ch. 2) and Ghione & Naldi [@ghioneAnalyticalFormulasCoplanar1984]. Conductor thickness corrections use the first-order formulae of Gupta, Garg, Bahl & Bhartia [@guptaMicrostripLinesSlotlines1996] (§7.3, Eqs. 7.98-7.100).
+The quasi-static CPW analysis follows the conformal-mapping approach described by Simons (ch. 2) and Ghione & Naldi. Conductor thickness corrections use the first-order formulae of Gupta, Garg, Bahl & Bhartia (§7.3, Eqs. 7.98-7.100).
 
 ### Microstrip Theory
 
-The microstrip analysis uses the Hammerstad-Jensen [@hammerstadAccurateModelsMicrostrip1980] closed-form expressions for effective permittivity and characteristic impedance, as presented in Pozar [@pozar-2012] (ch. 3, §3.8).
+The microstrip analysis uses the Hammerstad-Jensen closed-form expressions for effective permittivity and characteristic impedance, as presented in Pozar (ch. 3, §3.8).
 
 ### General
 
-The ABCD-to-S-parameter conversion is the standard microwave-network relation from Pozar [@pozar-2012] (ch. 4).
+The ABCD-to-S-parameter conversion is the standard microwave-network relation from Pozar (ch. 4).
 
-The implementation was cross-checked against the Qucs-S model (see Qucs technical documentation [@qucs_technical_papers], §12 for CPW, §11 for microstrip) and the `scikit-rf` CPW class.
+The implementation was cross-checked against the Qucs-S model (see Qucs technical documentation, §12 for CPW, §11 for microstrip) and the `scikit-rf` CPW class.
 
 ::: sax.models.rf