package BACK

import chisel3._
import chisel3.util._

import org.chipsalliance.cde.config._
import freechips.rocketchip.diplomacy._
import freechips.rocketchip.tilelink._
import freechips.rocketchip.interrupts._

import freechips.rocketchip.tile._

class RocCC2CDRInIO extends Bundle{
  val overCLK = Bool()
  val dDatIn  = Bool()
  val uDatIn  = Bool()

  val isLast  = Bool()
}

class RocCC2CDROutIO extends Bundle{
  val dDatOut  = Bool()
  val uDatOut  = Bool()

  val isOnline = Bool()
}

class RoCC2CDRIO extends Bundle{
  val overCLK = Input(Bool())
  val dDatIn   = Input(Bool())
  val dDatOut  = Output(Bool())
  val uDatIn   = Input(Bool())
  val uDatOut  = Output(Bool())

  val isOnline = Output(Bool())
  val isLast   = Input(Bool())
}



class RoCC2CDR()(implicit p: Parameters) extends LazyModule {
  val opcodes: OpcodeSet = OpcodeSet.custom0
  val roccCSRs: Seq[CustomCSR] = Nil
  lazy val module: RoCC2CDRImpl = new RoCC2CDRImpl(this)
}



abstract class RoCC2CDRImplBase(outer: RoCC2CDR)(implicit p: Parameters) extends LazyModuleImp(outer) {
  val io = IO(new RoCCIO(0, 0))

  // val cdrio: RoCC2CDRIO = IO(new RoCC2CDRIO)
  val cdrInio  = IO(Input(new RocCC2CDRInIO))
  val cdrOutio = IO(Output(new RocCC2CDROutIO))

  val CDRIn = for( i <- 0 until 2 ) yield { Module(new CDRIn) }

  CDRIn(0).io.serDat  := cdrInio.dDatIn
  CDRIn(1).io.serDat  := cdrInio.uDatIn

  CDRIn(0).io.overCLK := cdrInio.overCLK
  CDRIn(1).io.overCLK := cdrInio.overCLK

  val CDROut = for( i <- 0 until 2 ) yield { Module(new CDROut) }

  cdrOutio.dDatOut := CDROut(0).io.serDat
  cdrOutio.uDatOut := CDROut(1).io.serDat

  val txFifo = for( i <- 0 until 2 ) yield { Module(new Queue(UInt(32.W), 16)) }
  val rxFifo = for( i <- 0 until 2 ) yield { Module(new Queue(UInt(32.W), 16)) }

  val isTLWriteSoftReset = for( i <- 0 until 4 ) yield { Wire(Bool()) }
  val isTLReadStatus     = Wire( Bool() )

  val txLeft = for( i <- 0 until 2 ) yield { RegInit(0.U(5.W)) }
  val rxLeft = for( i <- 0 until 2 ) yield { RegInit(0.U(5.W)) }

  val wdata = Wire(UInt(32.W))

}


trait RoCC2CDRImplTx{ this: RoCC2CDRImplBase =>


  val isTLWriteTxLen        = for( i <- 0 until 2 ) yield { Wire( Bool()) }
  val isTLWriteTxFifo       = for( i <- 0 until 2 ) yield { Wire( Bool()) }


  val isTxFifoRelease = for( i <- 0 until 2 ) yield { Wire( Bool()) }
  val txLen           = for( i <- 0 until 2 ) yield { RegInit(0.U(12.W)) }
  val isTxBusy        = for( i <- 0 until 2 ) yield { RegInit(false.B) }
  val isTxFull        = for( i <- 0 until 2 ) yield { ~txFifo(i).io.enq.ready }
  val intTxFifoFull   = for( i <- 0 until 2 ) yield { ~RegNext(isTxFull(i), false.B)  & isTxFull(i) }
  val intTxFinish     = for( i <- 0 until 2 ) yield { CDROut(i).io.axis.fire & CDROut(i).io.axis.bits.tlast }
  val intTxEnd        = for( i <- 0 until 2 ) yield { ShiftRegister( intTxFinish(i), 6, false.B, true.B) }

  val intTxFifoDeq    = for( i <- 0 until 2 ) yield { txFifo(i).io.deq.fire }

  val txCnt  = for( i <- 0 until 2 ) yield { Reg(UInt(2.W)) }
  val txData = for( i <- 0 until 2 ) yield { Reg(UInt(32.W)) }

  for( i <- 0 until 2 ) {
    when( txFifo(i).io.deq.fire ){ //txCnt(i) === 3.U
      txData(i) := txFifo(i).io.deq.bits
      when( isTxBusy(i) ){
        assert(CDROut(i).io.axis.fire)      
      }
    } .elsewhen( CDROut(i).io.axis.fire ){
      txData(i) := txData(i) << 8
    }
    
    txFifo(i).io.deq.ready := 
      isTxFifoRelease(i) & Mux( isTxBusy(i), CDROut(i).io.axis.fire & txCnt(i) === 3.U, true.B )

    txFifo(i).reset := reset.asBool | isTLWriteSoftReset(0+i)
    CDROut(i).reset := reset.asBool | isTLWriteSoftReset(0+i)

    CDROut(i).io.axis.bits.tdata := txData(i).head(8)
    CDROut(i).io.axis.bits.tlast := ~txFifo(i).io.deq.valid & txCnt(i) === 3.U
    CDROut(i).io.axis.bits.tuser := false.B
    CDROut(i).io.axis.valid := isTxBusy(i)


    when( isTLWriteSoftReset(i) ){
      isTxBusy(i) := false.B
    }.elsewhen( txFifo(i).io.deq.fire & ~isTxBusy(i) ){
      isTxBusy(i) := true.B
    } .elsewhen( CDROut(i).io.axis.fire & CDROut(i).io.axis.bits.tlast ){
      isTxBusy(i) := false.B
    }


    when( isTLWriteSoftReset(0+i) ){
      txCnt(i) := 0.U
    } .elsewhen( CDROut(i).io.axis.fire ){
      txCnt(i) := txCnt(i) + 1.U
    }


    when( isTLWriteTxLen(i) ){
      txLen(i) := wdata
    } .elsewhen( CDROut(i).io.axis.fire ){
      txLen(i) := txLen(i) - 1.U
    }

    txFifo(i).io.enq.bits  := wdata
    txFifo(i).io.enq.valid := isTLWriteTxFifo(i) & txLen(i) =/= 0.U

    when( isTLWriteSoftReset(0+i) ){
      txLeft(i) := 0.U
    } .elsewhen( txFifo(i).io.enq.fire & txFifo(i).io.deq.fire ){
      txLeft(i) := txLeft(i)
    } .elsewhen( txFifo(i).io.enq.fire ){
      txLeft(i) := txLeft(i) + 1.U
    } .elsewhen( txFifo(i).io.deq.fire ){
      txLeft(i) := txLeft(i) - 1.U
    }

  }



}


trait RoCC2CDRImplRx{ this: RoCC2CDRImplBase => 

  val isTLReadRxLen        = for( i <- 0 until 2 ) yield { Wire(Bool()) }
  val isTLReadRxFifo       = for( i <- 0 until 2 ) yield { Wire(Bool()) }

  val rxLen        = for( i <- 0 until 2 ) yield { RegInit(0.U(12.W)) }
  val isRxValid    = for( i <- 0 until 2 ) yield { rxFifo(i).io.deq.valid }
  val isRxError    = for( i <- 0 until 2 ) yield { RegInit(false.B) }
  val isAxisEnd    = for( i <- 0 until 2 ) yield { RegInit(false.B) }
  val isRxEnd      = for( i <- 0 until 2 ) yield { isAxisEnd(i) & ~rxFifo(i).io.deq.valid }
  val intRxError   = for( i <- 0 until 2 ) yield { ~RegNext(isRxError(i), false.B) & isRxError(i) }
  val intRxStart   = for( i <- 0 until 2 ) yield { rxLen(i) === 0.U & CDRIn(i).io.axis.fire }
  val intRxEnd     = for( i <- 0 until 2 ) yield { ~RegNext(isRxEnd(i), false.B) & isRxEnd(i) }
  val intRxFifoEnq = for( i <- 0 until 2 ) yield { rxFifo(i).io.enq.fire }
  val rxCnt        = for( i <- 0 until 2 ) yield { RegInit(0.U(2.W)) }
  val rxData       = for( i <- 0 until 2 ) yield { Reg(UInt(24.W)) }

  for( i <- 0 until 2 ) {
    when( isTLWriteSoftReset(2+i) ){
      isAxisEnd(i) := false.B
    } .elsewhen( CDRIn(i).io.axis.fire & CDRIn(i).io.axis.bits.tlast ){
      isAxisEnd(i) := true.B
    }

    when( isTLWriteSoftReset(2+i) ){
      rxCnt(i) := 0.U
    } .elsewhen( CDRIn(i).io.axis.fire ){
      rxCnt(i) := rxCnt(i) + 1.U
      rxData(i) := Cat( rxData(i), CDRIn(i).io.axis.bits.tdata )
    }

    when( isTLWriteSoftReset(2+i) ){
      rxLen(i) := 0.U
    } .elsewhen( CDRIn(i).io.axis.fire ){
      rxLen(i) := rxLen(i) + 1.U
    }

    rxFifo(i).io.enq.valid := CDRIn(i).io.axis.fire & rxCnt(i) === 3.U
    rxFifo(i).io.enq.bits  := Cat( rxData(i)(23, 0) , CDRIn(i).io.axis.bits.tdata  )
    
    assert( ~(( CDRIn(i).io.axis.fire & CDRIn(i).io.axis.bits.tlast) & rxCnt(i) =/= 3.U), "Assert Failed! Rx must 4-byte Align!" )

    CDRIn(i).io.axis.ready := true.B

    rxFifo(i).reset := reset.asBool | isTLWriteSoftReset(2+i)
    CDRIn(i).reset  := reset.asBool | isTLWriteSoftReset(2+i)

    rxFifo(i).io.deq.ready := isTLReadRxFifo(i)


    when( isTLWriteSoftReset(2+i) ){
      isRxError(i) := false.B
    } .elsewhen( rxFifo(i).io.enq.valid & ~rxFifo(i).io.enq.ready ){
      isRxError(i) := true.B
      printf(s"Warning, RxFifo$i Overflow!\n")
    }

    when( isTLWriteSoftReset(2+i) ){
      rxLeft(i) := 0.U
    } .elsewhen( rxFifo(i).io.enq.fire & rxFifo(i).io.deq.fire ){
      rxLeft(i) := rxLeft(i)
    } .elsewhen( rxFifo(i).io.enq.fire ){
      rxLeft(i) := rxLeft(i) + 1.U
    } .elsewhen( rxFifo(i).io.deq.fire ){
      rxLeft(i) := rxLeft(i) - 1.U
    }
  }




}

trait RoCC2CDRImplIsLast{ this: RoCC2CDRImplBase =>
  cdrOutio.isOnline := false.B
  val isReadIsLast = Wire(Bool())

}

trait RoCC2CDRImplUserCRC{ this: RoCC2CDRImplBase =>
  val isTLWriteTxFifo: Seq[Bool]
  val isTLReadRxFifo: Seq[Bool]

  val isTLReadTxCrc = for( i <- 0 until 2 ) yield { Wire(Bool()) }
  val isTLReadRxCrc = for( i <- 0 until 2 ) yield { Wire(Bool()) }


  val txCrc = for( i <- 0 until 2 ) yield { Module(new crc32_32) }
  val rxCrc = for( i <- 0 until 2 ) yield { Module(new crc32_32) }

  for( i <- 0 until 2 ) {
    txCrc(i).io.enq.valid := isTLWriteTxFifo(i)
    txCrc(i).io.enq.bits  := wdata

    rxCrc(i).io.enq.valid := isTLReadRxFifo(i)
    rxCrc(i).io.enq.bits  := rxFifo(i).io.deq.bits

    txCrc(i).reset := reset.asBool | isTLWriteSoftReset(0+i)
    rxCrc(i).reset := reset.asBool | isTLWriteSoftReset(2+i)
  }




}

trait RoCC2CDRImplLimitTimmer{ this: RoCC2CDRImplBase =>
  val intRxStart: Seq[Bool]
  val isTLWriteSoftReset: Seq[Bool]
  val isTxFifoRelease: Seq[Bool]

  val isTLWriteLimitTimerAim = for( i <- 0 until 2 ) yield { Wire(Bool()) }
  val isTLWriteLimitTxPair   = for( i <- 0 until 2 ) yield { Wire(Bool()) }

  val limitTimerCnt       = for( i <- 0 until 2 ) yield { RegInit(0.U(16.W)) }
  val limitTimerAim       = for( i <- 0 until 2 ) yield { RegInit(0.U(16.W)) }
  val isLimitTimerTrigger = for( i <- 0 until 2 ) yield { RegInit(false.B) }
  val txPairSel           = for( i <- 0 until 2 ) yield { RegInit((i.U)(2.W)) }

  for( i <- 0 until 2 ){
    when( isTLWriteSoftReset(0+i) | isTLWriteSoftReset(2+i) ){
      limitTimerCnt(i) := 0.U
    } .elsewhen( limitTimerCnt(i) =/= limitTimerAim(i) ){
      when( isLimitTimerTrigger(i) ){
        limitTimerCnt(i) := limitTimerCnt(i) + 1.U
      }
    }

    when( isTLWriteLimitTimerAim(i) ){
      limitTimerAim(i) := wdata
    }

    when( isTLWriteSoftReset(0+i) | isTLWriteSoftReset(2+i) ){
      isLimitTimerTrigger(i) := false.B
    } .elsewhen( intRxStart(i) ){
      isLimitTimerTrigger(i) := true.B
    }

    when( isTLWriteSoftReset(0+i) | isTLWriteSoftReset(2+i) ){
      txPairSel(i) := i.U
    } .elsewhen( isTLWriteLimitTxPair(i) ){
      txPairSel(i) := wdata
    }


    isTxFifoRelease(i) := ( 0 until 2).map{ lmt =>
      ((txPairSel(lmt) =/= i.U) | (limitTimerCnt(lmt) === limitTimerAim(lmt)))
    }.reduce(_&_)

  }

}

trait RoCC2CDRImplOutTimmer{ this: RoCC2CDRImplBase =>
  val isTxBusy: Seq[Bool]

  val timeOutCnt = for( _ <- 0 until 2 ) yield { RegInit(0.U(32.W)) }
  val isTLClearTimeOut  = for( _ <- 0 until 2 ) yield { Wire(Bool()) }
  val isTLReadTimeOut = for( _ <- 0 until 2 ) yield { Wire(Bool()) }

  val isTxClearTimeOut = for( i <- 0 until 2 ) yield { ~RegNext(isTxBusy(i)) & isTxBusy(i) }

  for( i <- 0 until 2 ) {
    when( isTLClearTimeOut(i) | isTxClearTimeOut(i) ){
      timeOutCnt(i) := 0.U
    } .otherwise{
      timeOutCnt(i) := timeOutCnt(i) + 1.U
    }
  }




}






class RoCC2CDRImpl(outer: RoCC2CDR)(implicit p: Parameters) extends RoCC2CDRImplBase(outer)
with RoCC2CDRImplTx with RoCC2CDRImplRx
with RoCC2CDRImplIsLast
with RoCC2CDRImplUserCRC
with RoCC2CDRImplLimitTimmer with RoCC2CDRImplOutTimmer
{



  io.mem.req.valid := false.B
  io.mem.req.bits  := DontCare
  io.mem.s1_kill   := false.B
  io.mem.s1_data   := DontCare
  io.mem.s2_kill   := false.B
  io.mem.keep_clock_enabled := false.B

  io.fpu_req.valid := false.B
  io.fpu_req.bits  := DontCare
  io.fpu_resp.ready := true.B
















  isTLWriteSoftReset(0)     := io.cmd.fire & io.cmd.bits.inst.funct === 0.U
  isTLWriteTxLen(0)         := io.cmd.fire & io.cmd.bits.inst.funct === 1.U
  isTLWriteTxFifo(0)        := io.cmd.fire & io.cmd.bits.inst.funct === 2.U
  isTLReadTxCrc(0)          := io.cmd.fire & io.cmd.bits.inst.funct === 3.U
  isTLClearTimeOut(0)       := io.cmd.fire & io.cmd.bits.inst.funct === 4.U & io.cmd.bits.inst.xs1
  isTLReadTimeOut(0)        := io.cmd.fire & io.cmd.bits.inst.funct === 4.U & io.cmd.bits.inst.xd

  isTLWriteSoftReset(1)     := io.cmd.fire & io.cmd.bits.inst.funct === 5.U
  isTLWriteTxLen(1)         := io.cmd.fire & io.cmd.bits.inst.funct === 6.U
  isTLWriteTxFifo(1)        := io.cmd.fire & io.cmd.bits.inst.funct === 7.U
  isTLReadTxCrc(1)          := io.cmd.fire & io.cmd.bits.inst.funct === 8.U
  isTLClearTimeOut(1)       := io.cmd.fire & io.cmd.bits.inst.funct === 9.U & io.cmd.bits.inst.xs1
  isTLReadTimeOut(1)        := io.cmd.fire & io.cmd.bits.inst.funct === 9.U & io.cmd.bits.inst.xd

  isTLWriteSoftReset(2)     := io.cmd.fire & io.cmd.bits.inst.funct === 10.U
  isTLReadRxLen(0)          := io.cmd.fire & io.cmd.bits.inst.funct === 11.U
  isTLReadRxFifo(0)         := io.cmd.fire & io.cmd.bits.inst.funct === 12.U
  isTLReadRxCrc(0)          := io.cmd.fire & io.cmd.bits.inst.funct === 13.U
  isTLWriteLimitTimerAim(0) := io.cmd.fire & io.cmd.bits.inst.funct === 14.U
  isTLWriteLimitTxPair(0)   := io.cmd.fire & io.cmd.bits.inst.funct === 15.U
  
  isTLWriteSoftReset(3)     := io.cmd.fire & io.cmd.bits.inst.funct === 16.U
  isTLReadRxLen(1)          := io.cmd.fire & io.cmd.bits.inst.funct === 17.U
  isTLReadRxFifo(1)         := io.cmd.fire & io.cmd.bits.inst.funct === 18.U
  isTLReadRxCrc(1)          := io.cmd.fire & io.cmd.bits.inst.funct === 19.U
  isTLWriteLimitTimerAim(1) := io.cmd.fire & io.cmd.bits.inst.funct === 20.U
  isTLWriteLimitTxPair(1)   := io.cmd.fire & io.cmd.bits.inst.funct === 21.U
  
  isTLReadStatus         := io.cmd.fire & io.cmd.bits.inst.funct === 22.U
  val isTLReadInterrupt   = io.cmd.fire & io.cmd.bits.inst.funct === 23.U & io.cmd.bits.inst.xd
  val isTLClearInterrupt  = io.cmd.fire & io.cmd.bits.inst.funct === 23.U & io.cmd.bits.inst.xs1
  isReadIsLast           := io.cmd.fire & io.cmd.bits.inst.funct === 24.U

  val interruptReg = RegInit(0.U(32.W))

  when(true.B){
    interruptReg := (interruptReg & Mux( isTLClearInterrupt, ~wdata, "hFFFFFFFF".U)) | Cat(
      intTxEnd(1), intTxEnd(0),
      intRxError(1), intRxError(0),
      intRxStart(1), intRxStart(0),
      intRxEnd(1), intRxEnd(0),
      intTxFifoDeq(1), intTxFifoDeq(0),
      intRxFifoEnq(1), intRxFifoEnq(0)
    )    
  }




  io.interrupt :=  
    intTxEnd(0) |
    intTxEnd(1) |
    intRxError(0) |
    intRxError(1) |
    intRxStart(0) |
    intRxStart(1) |
    intRxEnd(0) |
    intRxEnd(1) |
    intTxFifoDeq(0) |
    intTxFifoDeq(1) |
    intRxFifoEnq(0) |
    intRxFifoEnq(1)

  wdata := io.cmd.bits.rs1

  val cmdInfo = RegEnable(io.cmd.bits, io.cmd.fire)
  val rdata = Reg(UInt(32.W))

  
  // val cmdReady = RegInit(true.B)
  val respValid = RegInit(false.B)

  io.busy := respValid
  io.cmd.ready := ~respValid

  io.resp.valid := respValid
  io.resp.bits.rd := cmdInfo.inst.rd

  io.resp.bits.data := rdata





  printf("Warning, no protection on tx rx fifo!\n")
    // MuxCase( true.B, Array(
    //   ( io.cmd.bits.inst.funct === 2.U ) -> txFifo(0).io.enq.ready,
    //   ( io.cmd.bits.inst.funct === 6.U ) -> txFifo(1).io.enq.ready,
    //   ( bus.a.bits.address(7,0) === "h28".U ) -> rxFifo(0).io.deq.valid,
    //   ( bus.a.bits.address(7,0) === "h48".U ) -> rxFifo(1).io.deq.valid,
    // ))





  
  when( isTLReadStatus ){
    rdata := Cat( txLeft(1), txLeft(0), rxLeft(1), rxLeft(0), isRxValid(1), isRxValid(0), isRxError(1), isRxError(0), isTxBusy(1), isTxBusy(0), isTxFull(1), isTxFull(0) )
  } .elsewhen(isTLReadRxLen(0)       ){
    rdata := rxLen(0)
  } .elsewhen(isTLReadRxLen(1)       ){
    rdata := rxLen(1)
  } .elsewhen(isTLReadRxFifo(0)      ){
    rdata := rxFifo(0).io.deq.bits
  } .elsewhen(isTLReadRxFifo(1)      ){
    rdata := rxFifo(1).io.deq.bits
  } .elsewhen(isReadIsLast){
    rdata := cdrInio.isLast
  } .elsewhen(isTLReadTxCrc(0)){
    rdata := txCrc(0).io.crc
  } .elsewhen(isTLReadTxCrc(1)){
    rdata := txCrc(1).io.crc
  } .elsewhen(isTLReadRxCrc(0)){
    rdata := rxCrc(0).io.crc
  } .elsewhen(isTLReadRxCrc(1)){
    rdata := rxCrc(1).io.crc
  } .elsewhen(isTLReadInterrupt){
    rdata := interruptReg
  } .elsewhen(isTLReadTimeOut(0)){
    rdata := timeOutCnt(0)
  } .elsewhen(isTLReadTimeOut(1)){
    rdata := timeOutCnt(1)
  }


 when( io.resp.fire ){ //允许连续触发
    respValid := false.B 
  } .elsewhen( isTLReadStatus ){
    respValid := true.B
  } .elsewhen(isTLReadRxLen(0)       ){
    respValid := true.B
  } .elsewhen(isTLReadRxLen(1)       ){
    respValid := true.B
  } .elsewhen(isTLReadRxFifo(0)      ){
    respValid := true.B
  } .elsewhen(isTLReadRxFifo(1)      ){
    respValid := true.B
  } .elsewhen(isReadIsLast){
    respValid := true.B
  } .elsewhen(isTLReadTxCrc(0)){
    respValid := true.B
  } .elsewhen(isTLReadTxCrc(1)){
    respValid := true.B
  } .elsewhen(isTLReadRxCrc(0)){
    respValid := true.B
  } .elsewhen(isTLReadRxCrc(1)){
    respValid := true.B
  } .elsewhen(isTLReadInterrupt){
    respValid := true.B
  } .elsewhen(isTLReadTimeOut(0)){
    respValid := true.B
  } .elsewhen(isTLReadTimeOut(1)){
    respValid := true.B
  }

}


trait HasLazyRoCC2CDR { this: BaseTile =>
  val roccs = LazyModule(new RoCC2CDR())

  val roccCSRs = Seq(roccs.roccCSRs) // the set of custom CSRs requested by all roccs
}

trait HasLazyRoCC2CDRModule extends HasCoreParameters { this: RocketTileModuleImp with HasFpuOpt =>

  // val (respArb, cmdRouter) = {
    // val respArb = Module(new RRArbiter(new RoCCResponse()(outer.p), outer.roccs.size))
    val cmdRouter = Module(new Queue( new RoCCCommand, 2, false, true ))//Module(new RoccCommandRouter( Seq(outer.roccs.opcodes) )(outer.p))

      // outer.roccs.module.io.ptw ++=: ptwPorts
      outer.roccs.module.io.cmd <> cmdRouter.io.deq
      // val dcIF = Module(new SimpleHellaCacheIF()(outer.p))
      // dcIF.io.requestor <> outer.roccs.module.io.mem
      // dcachePorts += dcIF.io.cache
                //respArb.io.in(0) <> Queue(outer.roccs.module.io.resp)


    fpuOpt foreach { fpu =>
        fpu.io.cp_req.valid := false.B
        fpu.io.cp_resp.ready := false.B
    }

    // (Some(respArb), Some(cmdRouter))
  // }

  // val roccCSRIOs = Seq(outer.roccs.module.io.csrs)

  // (core.io.rocc.csrs zip roccCSRIOs.flatten).foreach { t => t._2 := t._1 }

  val cdrInio  = IO(Input(new RocCC2CDRInIO))
  val cdrOutio = IO(Output(new RocCC2CDROutIO))

  // val cdrio: RoCC2CDRIO = IO(new RoCC2CDRIO)
  // dontTouch(cdrio)


  cdrInio  <> outer.roccs.module.cdrInio
  cdrOutio <> outer.roccs.module.cdrOutio
  
}