prjpeppercorn/gatemate/die.py

616 lines
22 KiB
Python

#
# prjpeppercorn -- GateMate FPGAs Bitstream Documentation and Tools
#
# Copyright (C) 2024 The Project Peppercorn Authors.
#
# Permission to use, copy, modify, and/or distribute this software for any
# purpose with or without fee is hereby granted, provided that the above
# copyright notice and this permission notice appear in all copies.
#
# THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES
# WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF
# MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR
# ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES
# WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN
# ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF
# OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
#
from enum import Enum
from dataclasses import dataclass
def max_row():
return 131
def max_col():
return 163
def is_sb(x,y):
if (x>=-1 and x<=162 and y>=-1 and y<=130):
return (x+1) % 2 == (y+1) % 2
return False
def is_sb_big(x,y):
if (x>=-1 and x<=162 and y>=-1 and y<=130):
if (x+1) % 2 == 1 and (y+1) % 2 == 1:
return False if (x+1) % 4 == (y+1) % 4 else True
if (x+1) % 2 == 0 and (y+1) % 2 == 0:
return False if (x+1) % 4 != (y+1) % 4 else True
return False
def is_sb_sml(x,y):
if (x>=-1 and x<=162 and y>=-1 and y<=130):
if (x+1) % 2 == 1 and (y+1) % 2 == 1:
return True if (x+1) % 4 == (y+1) % 4 else False
if (x+1) % 2 == 0 and (y+1) % 2 == 0:
return True if (x+1) % 4 != (y+1) % 4 else False
return False
def get_sb_type(x,y):
return "SB_BIG" if is_sb_big(x,y) else "SB_SML"
def is_cpe(x,y):
return x>=1 and x<=160 and y>=1 and y<=128
def is_outmux(x,y):
return is_cpe(x,y) and (x+1) % 2 == (y+1) % 2
def is_edge_left(x,y):
return x==-2 and y>=1 and y<=130
def is_edge_right(x,y):
return x==max_col() and y>=1 and y<=128
def is_edge_bottom(x,y):
return y==-2 and x>=-1 and x<=162
def is_edge_top(x,y):
return y==max_row() and x>=1 and x<=162
def is_edge_io(x,y):
if (y==-2 and x>=5 and x<=40): # IO Bank S3/WA
return True
if (y==-2 and x>=57 and x<=92): # IO Bank S1/WB
return True
if (y==-2 and x>=101 and x<=136): # IO Bank S2/WC
return True
if (x==-2 and y>=25 and y<=60): # IO Bank W1/SA
return True
if (x==-2 and y>=69 and y<=104): # IO Bank W2/SB
return True
if (x==max_col() and y>=25 and y<=60): # IO Bank E1/NA
return True
if (x==max_col() and y>=69 and y<=104): # IO Bank E2/NB
return True
if (y==max_row() and x>=57 and x<=92): # IO Bank N1/EA
return True
if (y==max_row() and x>=101 and x<=136): # IO Bank N2/EB
return True
def is_gpio(x,y):
if is_edge_io(x,y):
if (y==-2 or y==max_row()):
return x % 2==1
if (x==-2 or x==max_col()):
return y % 2==1
return False
def base_loc(x,y):
return (((x-1) & ~1) + 1, ((y-1) & ~1) + 1)
class PinType(Enum):
INPUT = 0
OUTPUT = 1
INOUT = 2
@dataclass
class Primitive:
name : str
type : str
z : int
@dataclass
class Pin:
name : str
dir : PinType
wire_type : str
@dataclass
class Group:
name : str
type : str
@dataclass
class Endpoint:
name : str
type : str
@dataclass
class MUX:
src : str
dst : str
name : str
bits : int
value : int
invert: bool
@dataclass
class Connection:
x : int
y : int
name : str
PRIMITIVES_PINS = {
"CPE": [
Pin("RAM_I1" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("RAM_I2" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("IN1" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("IN2" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("IN3" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("IN4" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("IN5" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("IN6" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("IN7" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("IN8" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("CLK" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("EN" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("SR" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("CINX" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("PINX" ,PinType.INPUT, "CPE_WIRE_L"),
Pin("CINY1" ,PinType.INPUT, "CPE_WIRE_B"),
Pin("PINY1" ,PinType.INPUT, "CPE_WIRE_B"),
Pin("CINY2" ,PinType.INPUT, "CPE_WIRE_B"),
Pin("PINY2" ,PinType.INPUT, "CPE_WIRE_B"),
Pin("OUT1" ,PinType.OUTPUT, "CPE_WIRE_B"),
Pin("OUT2" ,PinType.OUTPUT, "CPE_WIRE_B"),
Pin("RAM_O1" ,PinType.OUTPUT, "CPE_WIRE_B"),
Pin("RAM_O2" ,PinType.OUTPUT, "CPE_WIRE_B"),
Pin("COUTX" ,PinType.OUTPUT, "CPE_WIRE_B"),
Pin("POUTX" ,PinType.OUTPUT, "CPE_WIRE_B"),
Pin("COUTY1" ,PinType.OUTPUT, "CPE_WIRE_T"),
Pin("POUTY1" ,PinType.OUTPUT, "CPE_WIRE_T"),
Pin("COUTY2" ,PinType.OUTPUT, "CPE_WIRE_T"),
Pin("POUTY2" ,PinType.OUTPUT, "CPE_WIRE_T"),
],
"GPIO" : [
Pin("IN1" , PinType.OUTPUT,"GPIO_WIRE"),
Pin("IN2" , PinType.OUTPUT,"GPIO_WIRE"),
Pin("OUT1" , PinType.INPUT, "GPIO_WIRE"),
Pin("OUT2" , PinType.INPUT, "GPIO_WIRE"),
Pin("OUT3" , PinType.INPUT, "GPIO_WIRE"),
Pin("OUT4" , PinType.INPUT, "GPIO_WIRE"),
Pin("DDR" , PinType.INPUT, "GPIO_WIRE"),
Pin("RESET" , PinType.INPUT, "GPIO_WIRE"),
Pin("CLOCK1", PinType.INPUT, "GPIO_WIRE"),
Pin("CLOCK2", PinType.INPUT, "GPIO_WIRE"),
Pin("CLOCK3", PinType.INPUT, "GPIO_WIRE"),
Pin("CLOCK4", PinType.INPUT, "GPIO_WIRE"),
Pin("DI" , PinType.INPUT, "GPIO_WIRE"),
Pin("DO" , PinType.OUTPUT,"GPIO_WIRE"),
Pin("OE" , PinType.OUTPUT,"GPIO_WIRE"),
]
}
def get_groups_for_type(type):
groups = []
def create_group(name, type):
groups.append(Group(name,type))
if "CPE" in type:
# CPE
for p in range(1,13):
create_group(f"IM_P{p:02d}", "IM")
if "OM" in type and p>=9:
create_group(f"OM_P{p:02d}", "OM")
if "SB_BIG" in type:
# SB_BIG
for p in range(1,13):
create_group(f"SB_BIG_P{p:02d}", "SB_BIG")
if "SB_SML" in type:
# SB_SML
for p in range(1,13):
create_group(f"SB_SML_P{p:02d}", "SB_SML")
#if "GPIO" in type:
# # GPIO
#if "IOES" in type:
# # IOES
return groups
def get_primitives_for_type(type):
primitives = []
if "CPE" in type:
primitives.append(Primitive("CPE","CPE",0))
if "GPIO" in type:
primitives.append(Primitive("GPIO","GPIO",0))
return primitives
def get_primitive_pins(bel):
return PRIMITIVES_PINS[bel]
def get_endpoints_for_type(type):
wires = []
def create_wire(name, type):
wires.append(Endpoint(name,type))
for prim in get_primitives_for_type(type):
for pin in get_primitive_pins(prim.type):
create_wire(f"{prim.name}.{pin.name}", type=f"{pin.wire_type}")
if "CPE" in type:
# CPE
for p in range(1,13):
plane = f"{p:02d}"
for i in range(8):
create_wire(f"IM.P{plane}.D{i}", type="IM_WIRE")
create_wire(f"IM.P{plane}.Y", type="IM_WIRE")
if "OM" in type and p>=9:
for i in range(4):
create_wire(f"OM.P{plane}.D{i}", type="OM_WIRE")
create_wire(f"OM.P{plane}.Y", type="OM_WIRE")
if "SB_BIG" in type:
# SB_BIG
for p in range(1,13):
plane = f"{p:02d}"
create_wire(f"SB_BIG.P{plane}.D0", type="SB_BIG_WIRE")
for i in range(1,5):
create_wire(f"SB_BIG.P{plane}.D2_{i}", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.D3_{i}", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.D4_{i}", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.D5_{i}", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.D6_{i}", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.D7_{i}", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.Y{i}", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.YDIAG", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.X34", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.X14", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.X12", type="SB_BIG_WIRE")
create_wire(f"SB_BIG.P{plane}.X23", type="SB_BIG_WIRE")
for i in range(1,5):
create_wire(f"SB_DRIVE.P{plane}.D{i}.IN", type="SB_DRIVE_WIRE")
create_wire(f"SB_DRIVE.P{plane}.D{i}.OUT", type="SB_DRIVE_WIRE")
if "SB_SML" in type:
# SB_SML
for p in range(1,13):
plane = f"{p:02d}"
create_wire(f"SB_SML.P{plane}.D0", type="SB_SML_WIRE")
for i in range(1,5):
create_wire(f"SB_SML.P{plane}.D2_{i}", type="SB_SML_WIRE")
create_wire(f"SB_SML.P{plane}.D3_{i}", type="SB_SML_WIRE")
create_wire(f"SB_SML.P{plane}.Y{i}", type="SB_SML_WIRE")
create_wire(f"SB_SML.P{plane}.YDIAG", type="SB_SML_WIRE")
create_wire(f"SB_SML.P{plane}.X34", type="SB_SML_WIRE")
create_wire(f"SB_SML.P{plane}.X14", type="SB_SML_WIRE")
create_wire(f"SB_SML.P{plane}.X12", type="SB_SML_WIRE")
create_wire(f"SB_SML.P{plane}.X23", type="SB_SML_WIRE")
if "IOES" in type:
# IOES
create_wire(f"IOES.IO_IN1", type="IOES_WIRE")
create_wire(f"IOES.IO_IN2", type="IOES_WIRE")
for p in range(1,13):
plane = f"{p:02d}"
create_wire(f"IOES.SB_IN_{plane}", type="IOES_WIRE")
create_wire(f"IOES.ALTIN_{plane}", type="IOES_WIRE")
return wires
def get_mux_connections_for_type(type):
muxes = []
def create_mux(src, dst, bits, value, invert, name = None):
name = dst if name is None else name
muxes.append(MUX(src, dst, name, bits, value, invert))
if "CPE" in type:
# CPE
for p in range(1,13):
plane = f"{p:02d}"
for i in range(8):
create_mux(f"IM.P{plane}.D{i}", f"IM.P{plane}.Y", 3, i, True, f"IM.P{plane}")
if "OM" in type and p>=9:
for i in range(4):
create_mux(f"OM.P{plane}.D{i}", f"OM.P{plane}.Y", 2, i, True, f"OM.P{plane}")
if "SB_BIG" in type:
# SB_BIG
for p in range(1,13):
plane = f"{p:02d}"
# Per Y output mux
for i in range(1,5):
create_mux(f"SB_BIG.P{plane}.D0", f"SB_BIG.P{plane}.Y{i}", 3, 0, True)
create_mux(f"SB_BIG.P{plane}.YDIAG", f"SB_BIG.P{plane}.Y{i}", 3, 1, True)
create_mux(f"SB_BIG.P{plane}.D2_{i}", f"SB_BIG.P{plane}.Y{i}", 3, 2, True)
create_mux(f"SB_BIG.P{plane}.D3_{i}", f"SB_BIG.P{plane}.Y{i}", 3, 3, True)
create_mux(f"SB_BIG.P{plane}.D4_{i}", f"SB_BIG.P{plane}.Y{i}", 3, 4, True)
create_mux(f"SB_BIG.P{plane}.D5_{i}", f"SB_BIG.P{plane}.Y{i}", 3, 5, True)
create_mux(f"SB_BIG.P{plane}.D6_{i}", f"SB_BIG.P{plane}.Y{i}", 3, 6, True)
create_mux(f"SB_BIG.P{plane}.D7_{i}", f"SB_BIG.P{plane}.Y{i}", 3, 7, True)
# YDIAG output mux
create_mux(f"SB_BIG.P{plane}.Y1", f"SB_BIG.P{plane}.YDIAG", 3, 0, True)
create_mux(f"SB_BIG.P{plane}.Y2", f"SB_BIG.P{plane}.YDIAG", 3, 1, True)
create_mux(f"SB_BIG.P{plane}.Y3", f"SB_BIG.P{plane}.YDIAG", 3, 2, True)
create_mux(f"SB_BIG.P{plane}.Y4", f"SB_BIG.P{plane}.YDIAG", 3, 3, True)
create_mux(f"SB_BIG.P{plane}.X34", f"SB_BIG.P{plane}.YDIAG", 3, 4, True)
create_mux(f"SB_BIG.P{plane}.X14", f"SB_BIG.P{plane}.YDIAG", 3, 5, True)
create_mux(f"SB_BIG.P{plane}.X12", f"SB_BIG.P{plane}.YDIAG", 3, 6, True)
create_mux(f"SB_BIG.P{plane}.X23", f"SB_BIG.P{plane}.YDIAG", 3, 7, True)
for i in range(1,5):
create_mux(f"SB_DRIVE.P{plane}.D{i}.IN", f"SB_DRIVE.P{plane}.D{i}.OUT", 1, 1, False, f"SB_DRIVE.P{plane}.D{i}")
if "SB_SML" in type:
# SB_SML
for p in range(1,13):
plane = f"{p:02d}"
# Per Y output mux
for i in range(1,5):
create_mux(f"SB_SML.P{plane}.D0", f"SB_SML.P{plane}.Y{i}", 2, 0, True)
create_mux(f"SB_SML.P{plane}.YDIAG", f"SB_SML.P{plane}.Y{i}", 2, 1, True)
create_mux(f"SB_SML.P{plane}.D2_{i}", f"SB_SML.P{plane}.Y{i}", 2, 2, True)
create_mux(f"SB_SML.P{plane}.D3_{i}", f"SB_SML.P{plane}.Y{i}", 2, 3, True)
# YDIAG output mux
create_mux(f"SB_SML.P{plane}.Y1", f"SB_SML.P{plane}.YDIAG", 3, 0, True)
create_mux(f"SB_SML.P{plane}.Y2", f"SB_SML.P{plane}.YDIAG", 3, 1, True)
create_mux(f"SB_SML.P{plane}.Y3", f"SB_SML.P{plane}.YDIAG", 3, 2, True)
create_mux(f"SB_SML.P{plane}.Y4", f"SB_SML.P{plane}.YDIAG", 3, 3, True)
create_mux(f"SB_SML.P{plane}.X34", f"SB_SML.P{plane}.YDIAG", 3, 4, True)
create_mux(f"SB_SML.P{plane}.X14", f"SB_SML.P{plane}.YDIAG", 3, 5, True)
create_mux(f"SB_SML.P{plane}.X12", f"SB_SML.P{plane}.YDIAG", 3, 6, True)
create_mux(f"SB_SML.P{plane}.X23", f"SB_SML.P{plane}.YDIAG", 3, 7, True)
#if "GPIO" in type:
# # GPIO
if "IOES" in type:
# IOES
for p in range(1,13):
plane = f"{p:02d}"
io_in = 1 if p % 2 else 2
create_mux(f"IOES.IO_IN{io_in}", f"IOES.SB_IN_{plane}", 1, 0, False)
create_mux(f"IOES.ALTIN_{plane}", f"IOES.SB_IN_{plane}", 1, 1, False)
return muxes
def get_tile_types(x,y):
val = list()
if is_cpe(x,y):
val.append("CPE")
val.append("IM")
if is_outmux(x,y):
val.append("OM")
if is_sb_big(x,y):
val.append("SB_BIG")
if is_sb_sml(x,y):
val.append("SB_SML")
if is_gpio(x,y):
val.append("GPIO")
if is_edge_io(x,y):
val.append("IOES")
if is_edge_top(x,y):
val.append("TES")
if is_edge_bottom(x,y):
val.append("BES")
if is_edge_left(x,y):
val.append("LES")
if is_edge_right(x,y):
val.append("RES")
return val
def get_tile_type(x,y):
val = get_tile_types(x,y)
if not val:
val.append("NONE")
return "_".join(val)
def get_tile_type_list():
tt = set()
for y in range(-2, max_row()+1):
for x in range(-2, max_col()+1):
tt.add(get_tile_type(x,y))
return tt
conn = dict()
debug_conn = False
def create_conn(src_x,src_y, src, dst_x, dst_y, dst):
key_val = f"{src_x}/{src_y}/{src}"
key = Connection(src_x, src_y, src)
item = Connection(dst_x, dst_y, dst)
if key_val not in conn:
conn[key_val] = list()
conn[key_val].append(key)
conn[key_val].append(item)
if debug_conn:
print(f"({src_x},{src_y}) {src} => ({dst_x},{dst_y}) {dst}")
def alt_plane(dir,plane):
alt = [[5, 6, 7, 8, 1, 2, 3, 4,11,12, 9,10],
[9,10,11,12, 9,10,11,12,12,11,10, 9]]
return alt[dir][plane-1]
def create_cpe(x,y):
create_conn(x,y,"IM.P01.Y", x,y,"CPE.IN1")
create_conn(x,y,"IM.P02.Y", x,y,"CPE.IN2")
create_conn(x,y,"IM.P03.Y", x,y,"CPE.IN3")
create_conn(x,y,"IM.P04.Y", x,y,"CPE.IN4")
create_conn(x,y,"IM.P05.Y", x,y,"CPE.IN5")
create_conn(x,y,"IM.P06.Y", x,y,"CPE.IN6")
create_conn(x,y,"IM.P07.Y", x,y,"CPE.IN7")
create_conn(x,y,"IM.P08.Y", x,y,"CPE.IN8")
create_conn(x,y,"IM.P09.Y", x,y,"CPE.CLK")
create_conn(x,y,"IM.P10.Y", x,y,"CPE.EN")
create_conn(x,y,"IM.P11.Y", x,y,"CPE.SR")
if is_cpe(x,y-1):
create_conn(x,y-1,"CPE.COUTY1", x,y,"CPE.CINY1")
create_conn(x,y-1,"CPE.COUTY2", x,y,"CPE.CINY2")
create_conn(x,y-1,"CPE.POUTY1", x,y,"CPE.PINY1")
create_conn(x,y-1,"CPE.POUTY2", x,y,"CPE.PINY2")
if is_cpe(x-1,y):
create_conn(x-1,y,"CPE.COUTX", x,y,"CPE.CINX")
create_conn(x-1,y,"CPE.POUTX", x,y,"CPE.PINX")
def create_inmux(x,y):
for p in range(1,13):
plane = f"{p:02d}"
# D0 - D3 are from nearby SBs
offset = 2 if is_sb(x,y) else 1
create_conn(x-offset,y,f"{get_sb_type(x-offset,y)}.P{plane}.Y1", x,y,f"IM.P{plane}.D0")
create_conn(x,y-offset,f"{get_sb_type(x,y-offset)}.P{plane}.Y2", x,y,f"IM.P{plane}.D1")
create_conn(x+offset,y,f"{get_sb_type(x+offset,y)}.P{plane}.Y3", x,y,f"IM.P{plane}.D2")
create_conn(x,y+offset,f"{get_sb_type(x,y+offset)}.P{plane}.Y4", x,y,f"IM.P{plane}.D3")
# D4 and D5 are from diagonal INMUX
if is_cpe(x-1,y-1):
create_conn(x-1,y-1,f"IM.P{plane}.Y", x,y,f"IM.P{plane}.D4")
if is_cpe(x+1,y+1):
create_conn(x+1,y+1,f"IM.P{plane}.Y", x,y,f"IM.P{plane}.D5")
# D6 and D7 are from alternate planes
alt = f"{alt_plane(0,p):02d}"
create_conn(x,y,f"IM.P{alt}.Y", x,y,f"IM.P{plane}.D6")
alt = f"{alt_plane(1,p):02d}"
create_conn(x,y,f"IM.P{alt}.Y", x,y,f"IM.P{plane}.D7")
def prev_plane(p):
return (p-2) % 12 + 1
def next_plane(p):
return p % 12 + 1
def create_sb(x,y):
x_0,y_0 = base_loc(x,y)
sb_type = get_sb_type(x,y)
for p in range(1,13):
plane = f"{p:02d}"
# Handling input D0
if is_cpe(x,y):
# Core section SBs are connected to CPE
if p < 9:
# planes 1..8
x_cpe = x_0 + (1 if (p-1) & 2 else 0)
y_cpe = y_0 + (1 if (p-1) & 1 else 0)
# alternate patterns for lower-left SB(1,1) and upper-right SB(2,2)
out = [ 2, 1, 2, 1, 1, 2, 1, 2] if x & 1 else [ 1, 2, 1, 2, 2, 1, 2, 1]
create_conn(x_cpe,y_cpe,f"CPE.OUT{out[p-1]}", x,y,f"{sb_type}.P{plane}.D0")
else:
# planes 9..12
create_conn(x,y,f"OM.P{plane}.Y", x,y,f"{sb_type}.P{plane}.D0")
# Handling GPIO connections is done in create_io
# Handling inputs D2_* till D7_*
distances = [2, 4, 8, 12, 16, 20] if is_sb_big(x,y) else [2, 4]
for i,distance in enumerate(distances):
for direction in range(4):
sb_x, sb_y = x, y
match direction:
case 0 :
sb_x -= distance
case 1 :
sb_y -= distance
case 2 :
sb_x += distance
case 3 :
sb_y += distance
if is_sb(sb_x,sb_y):
src = f"{get_sb_type(sb_x,sb_y)}.P{plane}.Y{direction+1}"
# Long distance signals are coming from SB_DRIVE
if (distance>4):
src = f"SB_DRIVE.P{plane}.D{direction+1}.OUT"
create_conn(sb_x,sb_y, src, x,y,f"{get_sb_type(x,y)}.P{plane}.D{i+2}_{direction+1}")
# Diagonal inputs
# X12 and X34 on edges are unconnected
if is_sb(x-1,y-1):
create_conn(x-1,y-1,f"{get_sb_type(x-1,y-1)}.P{plane}.YDIAG", x,y,f"{get_sb_type(x,y)}.P{plane}.X12")
if is_sb(x+1,y+1):
create_conn(x+1,y+1,f"{get_sb_type(x+1,y+1)}.P{plane}.YDIAG", x,y,f"{get_sb_type(x,y)}.P{plane}.X34")
create_conn(x,y,f"{get_sb_type(x,y)}.P{prev_plane(p):02d}.YDIAG", x,y,f"{get_sb_type(x,y)}.P{plane}.X14")
create_conn(x,y,f"{get_sb_type(x,y)}.P{next_plane(p):02d}.YDIAG", x,y,f"{get_sb_type(x,y)}.P{plane}.X23")
def create_outmux(x,y):
x_0,y_0 = base_loc(x,y)
for p in range(9,13):
plane = f"{p:02d}"
# alternating patters depending of plane and outmux position
outputs = [2, 2, 1, 1] if p % 2 == x & 1 else [1, 1, 2, 2]
create_conn(x_0, y_0, f"CPE.OUT{outputs[0]}", x,y, f"OM.P{plane}.D0")
create_conn(x_0, y_0+1, f"CPE.OUT{outputs[1]}", x,y, f"OM.P{plane}.D1")
create_conn(x_0+1, y_0, f"CPE.OUT{outputs[2]}", x,y, f"OM.P{plane}.D2")
create_conn(x_0+1, y_0+1, f"CPE.OUT{outputs[3]}", x,y, f"OM.P{plane}.D3")
def create_io(x,y):
cpe_x, cpe_y = gpio_x, gpio_y = sb_x, sb_y = x, y
alt = False
if is_edge_left(sb_x,sb_y):
output = "Y3"
cpe_x += 3
if is_sb(sb_x+1,sb_y):
sb_x += 1
else:
sb_x += 2
gpio_y -= 1
alt = True
elif is_edge_right(sb_x,sb_y):
output = "Y1"
cpe_x -= 3
if is_sb(sb_x-1,sb_y):
sb_x -= 1
gpio_y -= 1
alt = True
else:
sb_x -= 2
elif is_edge_bottom(sb_x,sb_y):
output = "Y4"
cpe_y += 3
if is_sb(sb_x,sb_y+1):
sb_y += 1
else:
sb_y += 2
gpio_x -= 1
alt = True
else:
output = "Y2"
cpe_y -= 3
if is_sb(sb_x,sb_y-1):
sb_y -= 1
gpio_x -= 1
alt = True
else:
sb_y -= 2
for p in range(1,13):
plane = f"{p:02d}"
create_conn(sb_x,sb_y,f"{get_sb_type(sb_x,sb_y)}.P{plane}.{output}", x,y, f"IOES.ALTIN_{plane}")
create_conn(x,y, f"IOES.SB_IN_{plane}", sb_x,sb_y,f"{get_sb_type(sb_x,sb_y)}.P{plane}.D0")
create_conn(gpio_x,gpio_y,"GPIO.IN1", x,y, "IOES.IO_IN1")
create_conn(gpio_x,gpio_y,"GPIO.IN2", x,y, "IOES.IO_IN2")
if alt:
create_conn(cpe_x, cpe_y, "CPE.RAM_O1", gpio_x,gpio_y,"GPIO.OUT3")
create_conn(cpe_x, cpe_y, "CPE.RAM_O2", gpio_x,gpio_y,"GPIO.OUT4")
else:
create_conn(cpe_x, cpe_y, "CPE.RAM_O1", gpio_x,gpio_y,"GPIO.OUT1")
create_conn(cpe_x, cpe_y, "CPE.RAM_O2", gpio_x,gpio_y,"GPIO.OUT2")
def get_connections():
for y in range(-2, max_row()+1):
for x in range(-2, max_col()+1):
if is_cpe(x,y):
create_cpe(x,y)
create_inmux(x,y)
if is_outmux(x,y):
create_outmux(x,y)
if is_sb(x,y):
create_sb(x,y)
if is_edge_io(x,y):
create_io(x,y)
return conn.items()