info.yaml

--- 
# TinyTapeout project information
project:
  wokwi_id:    350008746567533140        # If using wokwi, set this to your project's ID
#  source_files:        # If using an HDL, set wokwi_id as 0 and uncomment and list your source files here
#    - verilog/rtl/counter.v
#    - verilog/rtl/decoder.v
#  top_module:  "seven_segment_seconds"      # put the name of your top module here, make it unique by prepending your github username

# As everyone will have access to all designs, try to make it easy for someone new to your design to know what
# it does and how to operate it.
#
# Here is an example: https://github.com/mattvenn/tinytapeout_m_segments/blob/main/info.yaml
#
# This info will be automatically collected and used to make a datasheet for the chip.
documentation: 
  author:       "saicharan0112"      # Your name
  discord:      ""      # Your discord handle - make sure to include the # part as well
  title:        "reversible_programmable_logic_ic"      # Project title
  description:  "Quad 3-input Fredkin gate which can be programmed into the 3 basic logic gates - AND, OR and NOT whose outputs are reversible"  # Short description of what your project does
  how_it_works: "Refer to datasheet.md inside saicharan0112/reversible_programmable_logic_ic repo"      # Longer description of how the project works
  how_to_test:  ""      # Instructions on how someone could test your project, include things like what buttons do what and how to set the clock if needed
  external_hw:  ""      # Describe any external hardware needed
  language:     "wokwi" # other examples include Verilog, Amaranth, VHDL, etc
  doc_link:     "Refer to datasheet.md inside saicharan0112/reversible_programmable_logic_ic repo"      # URL to longer form documentation, eg the README.md in your repository
  clock_hz:     0       # Clock frequency in Hz (if required) we are expecting max clock frequency to be ~6khz. Provided on input 0.
  picture:      ""      # relative path to a picture in your repository
  inputs:               # a description of what the inputs do
    - in0 [input A to the first Fredkin gate]
    - in1 [input B to the first Fredkin gate]
    - in2 [input C to the first Fredkin gate]
    - in3 [input A to the second Fredkin gate]
    - in4 [input B to the second Fredkin gate]
    - in5 [input C to the second Fredkin gate]
    - in6 [input A to the third Fredkin gate]
    - in7 [input B to the third Fredkin gate]
    - in8 [input C to the third Fredkin gate]
    - in9 [input A to the fourth Fredkin gate]
    - in10 [input B to the fourth Fredkin gate]
    - in11 [input C to the fourth Fredkin gate]
  outputs:               # a description of what the outputs do
    - out0 [output X to the first Fredkin gate]
    - out1 [output Y to the first Fredkin gate]
    - out2 [output Z to the first Fredkin gate]
    - out3 [output X to the second Fredkin gate]
    - out4 [output Y to the second Fredkin gate]
    - out5 [output Z to the second Fredkin gate]
    - out6 [output X to the third Fredkin gate]
    - out7 [output Y to the third Fredkin gate]
    - out8 [output Z to the third Fredkin gate]
    - out9 [output X to the fourth Fredkin gate]
    - out10 [output Y to the fourth Fredkin gate]
    - out11 [output Z to the fourth Fredkin gate]