Integrated fpga_top with caravel
diff --git a/README.md b/README.md
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--- a/README.md
+++ b/README.md
@@ -1,123 +1,19 @@
-# CIIC Harness
+# Caravel-OpenFPGA-EF
-A template SoC for Google SKY130 free shuttles. It is still WIP. The current SoC architecture is given below.
+The repo contains the FPGA layout integration with the [Caravel](https://github.com/efabless/caravel.git) chip.
+Thee layout is an 8x8 FPGA fabric generated using [OpenFPGA](https://github.com/lnis-uofu/OpenFPGA) and hardened using [OpenLANE](https://github.com/efabless/openlane).
-<p align=”center”>
-<img src="/doc/ciic_harness.png" width="75%" height="75%">
-</p>
+# Caravel Integration
+### Verilog View
-## Getting Started:
+The 8x8 fpga interface to the managent area can be found at [fpga_top.v]() . The fabric is conncted to the managemtent area logic analyzer and wishbone bus.
-* For information on tooling and versioning, please refer to [this][1].
+### GDS View
-Start by cloning the repo and uncompressing the files.
-```bash
-git clone https://github.com/efabless/caravel.git
-cd caravel
-make uncompress
-```
+(WIP)
-Then you need to install the open_pdks prerequisite:
- - [Magic VLSI Layout Tool](http://opencircuitdesign.com/magic/index.html) is needed to run open_pdks -- version >= 8.3.60*
+# To Do
- > \* Note: You can avoid the need for the magic prerequisite by using the openlane docker to do the installation step in open_pdks. This [file](https://github.com/efabless/openlane/blob/develop/travisCI/travisBuild.sh) shows how.
-
-Install the required version of the PDK by running the following commands:
-
-```bash
-export PDK_ROOT=<The place where you want to install the pdk>
-make pdk
-```
-
-Then, you can learn more about the caravel chip by watching these video:
-- Caravel User Project Features -- https://youtu.be/zJhnmilXGPo
-- Aboard Caravel -- How to put your design on Caravel? -- https://youtu.be/9QV8SDelURk
-- Things to Clarify About Caravel -- What versions to use with Caravel? -- https://youtu.be/-LZ522mxXMw
- - You could only use openlane:rc5
- - Make sure you have the commit hashes provided here inside the [Makefile](./Makefile)
-## Aboard Caravel:
-
-Your area is the full user_project_wrapper, so feel free to add your project there or create a differnt macro and harden it seperately then insert it into the user_project_wrapper. For example, if your design is analog or you're using a different tool other than OpenLANE.
-
-If you will use OpenLANE to harden your design, go through the instructions in this [README.md][0].
-
-Then, you will need to put your design aboard the Caravel chip. Make sure you have the following:
-
-- [Magic VLSI Layout Tool](http://opencircuitdesign.com/magic/index.html) installed on your machine. We may provide a Dockerized version later.\*
-- You have your user_project_wrapper.gds under `./gds/` in the Caravel directory.
-
- > \* **Note:** You can avoid the need for the magic prerequisite by using the openlane docker to run the make step. This [section](#running-make-using-openlane-magic) shows how.
-
-Run the following command:
-
-```bash
-export PDK_ROOT=<The place where the installed pdk resides. The same PDK_ROOT used in the pdk installation step>
-make
-```
-
-This should merge the GDSes using magic and you'll end up with your version of `./gds/caravel.gds`. You should expect hundred of thousands of magic DRC violations with the current "development" state of caravel.
-
-## Running Make using OpenLANE Magic
-
-To use the magic installed inside Openlane to complete the final GDS streaming out step, export the following:
-
-```bash
-export PDK_ROOT=<The location where the pdk is installed>
-export OPENLANE_ROOT=<the absolute path to the openlane directory cloned or to be cloned>
-export IMAGE_NAME=<the openlane image name installed on your machine. Preferably openlane:rc5>
-export CARAVEL_PATH=$(pwd)
-```
-
-Then, mount the docker:
-
-```bash
-docker run -it -v $CARAVEL_PATH:$CARAVEL_PATH -v $OPENLANE_ROOT:/openLANE_flow -v $PDK_ROOT:$PDK_ROOT -e CARAVEL_PATH=$CARAVEL_PATH -e PDK_ROOT=$PDK_ROOT -u $(id -u $USER):$(id -g $USER) $IMAGE_NAME
-```
-
-Finally, once inside the docker run the following commands:
-```bash
-cd $CARAVEL_PATH
-make
-exit
-```
-
-This should merge the GDSes using magic and you'll end up with your version of `./gds/caravel.gds`. You should expect hundred of thousands of magic DRC violations with the current "development" state of caravel.
-
-## Required Directory Structure
-
-- ./gds/ : includes all the gds files used or produced from the project.
-- ./def/ : includes all the def files used or produced from the project.
-- ./lef/ : includes all the lef files used or produced from the project.
-- ./mag/ : includes all the mag files used or produced from the project.
-- ./maglef/ : includes all the maglef files used or produced from the project.
-- ./spi/lvs/ : includes all the maglef files used or produced from the project.
-- ./verilog/dv/ : includes all the simulation test benches and how to run them.
-- ./verilog/gl/ : includes all the synthesized/elaborated netlists.
-- ./verilog/rtl/ : includes all the Verilog RTLs and source files.
-- ./openlane/`<macro>`/ : includes all configuration files used to run openlane on your project.
-- info.yaml: includes all the info required in [this example](info.yaml). Please make sure that you are pointing to an elaborated caravel netlist as well as a synthesized gate-level-netlist for the user_project_wrapper
-
-## Managment SoC
-The managment SoC runs firmware that can be used to:
-- Configure User Project I/O pads
-- Observe and control User Project signals (through on-chip logic analyzer probes)
-- Control the User Project power supply
-
-The memory map of the management SoC can be found [here](verilog/rtl/README)
-
-## User Project Area
-This is the user space. It has limited silicon area (TBD, about 3.1mm x 3.8mm) as well as a fixed number of I/O pads (37) and power pads (10). See [the Caravel premliminary datasheet](doc/caravel_datasheet.pdf) for details.
-The repository contains a [sample user project](/verilog/rtl/user_proj_example.v) that contains a binary 32-bit up counter. </br>
-
-<p align=”center”>
-<img src="/doc/counter_32.png" width="50%" height="50%">
-</p>
-
-The firmware running on the Management Area SoC, configures the I/O pads used by the counter and uses the logic probes to observe/control the counter. Three firmware examples are provided:
-1. Configure the User Project I/O pads as o/p. Observe the counter value in the testbench: [IO_Ports Test](verilog/dv/caravel/user_proj_example/io_ports).
-2. Configure the User Project I/O pads as o/p. Use the Chip LA to load the counter and observe the o/p till it reaches 500: [LA_Test1](verilog/dv/caravel/user_proj_example/la_test1).
-3. Configure the User Project I/O pads as o/p. Use the Chip LA to control the clock source and reset signals and observe the counter value for five clock cylcles: [LA_Test2](verilog/dv/caravel/user_proj_example/la_test2).
-
-[0]: openlane/README.md
-[1]: mpw-one-a.md
+1. Functional and Gate-level verification
+3. DRC and LVS checks
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