如图，输入电压范围为90-240Vac,输出48V0.86A，不知道仿真时怎么设置，请老师们赐教下。谢谢
用saber2006做的电路仿真文件：
single_amp_48V0A86
生成网表时报错：
第一个警告解决了，就是把输出电源那里的“amplitude"参数填上就好了，如图
还有两个告警，就是提示某端的单位属性定义成了“电气”某端定义成了“磁”，由于这个电路是用别人的改过来的，所以，到现在为止还没有找到这两个端口在哪里，怎么定义她们的单位属性。
这个电路里的变压器参数不知该怎样填！在此写出来让大师们指导一下
其中有初级电流，电感，耦合系数，内阻等等参数，不知哪些是必须填哪些可以不用填？！初级电流是用计算的峰值电流还是平均电流呢？谢大师们不吝赐教。
这是变压器的属性框
下面是属性框里各行功能的解释
#VERSION
#DATED 11-Nov-2004.14:47:36
# encrypted template xfrl3 p1 m1 p2 m2 p3 m3 = l1, l2, l3,
# n1, n2, n3, ur, len, area,
# k12, k13, k23, r1, r2, r3
#***********************************************************************
# Linear transformer (called by: xfrl3 ) #
# #
# #
# flux --> #
# First coil _______________ Second coil #
# | | #
# * | | * #
#I1 --> + o---=== ===----o + <-- I2 #
# V1 \ N1 N2 / V2 #
# \ / #
# <-- - o---=|= =|=----o - --> #
# | | #
# | | * #
# | ===----o + <-- I3 #
# | N3 / V3 #
# | / #
# | =|=----o - --> #
# | | #
# | | Third coil #
# ------------------------- #
# <-- flux #
# #
# NOTE: 1. The above diagram is informal and does not represent #
# the details of magnetic path in the modeled device. #
# 2. Note the orientation of windings indicated by the #
# slashes and winding terminals "over" and "under" the #
# core. #
# #
# area = cross section area of flux path #
# len = length of flux path #
# ur = permeability of core wrt free space #
# k = coefficient of coupling between coils #
# #
# #
#***********************************************************************
# #
# Note: The inductances can be specified with the single #
# parameters l1, l2, and l3, or by the magnetic parameters #
# l, a, ur, and (n1, n2, or n3). #
# If l1, l2, or l3 are specified, the other parameters #
# are not used. #
# #
#**********************************************************************#
# Copyright 2004 Synopsys Inc. #
# This template and the associated documentation are #
# confidential and proprietary to Synopsys, Inc. #
# Your use or disclosure of this template is subject to #
# the terms and conditions of a written license agreement #
# between you, or your company, and Synopsys, Inc #
#**********************************************************************#
encrypted template xfrl3 p1 m1 p2 m2 p3 m3 = l1, l2, l3,
n1, n2, n3, ur, len, area,
k12, k13, k23, r1, r2, r3
electrical p1, # First winding positive node.
m1, # First winding negative node.
p2, # Second winding positive node.
m2, # Second winding negative node.
p3, # Third winding positive node.
m3 # Third winding negative node.
# Electrical specification for inductances.
number l1=undef, # First winding inductance.
l2=undef, # Second winding inductance.
l3=undef # Third winding inductance.
# Magnetic specification for determining inductances.
number n1=undef, # Number of turns in first winding.
n2=undef, # Number of turns in second winding.
n3=undef, # Number of turns in third winding.
len=undef, # Magnetic path length - meters
# (e.g. mean circumference of toroid)
area=undef, # Magnetic path cross section Area - meters
# (e.g. cross section area of toroid)
ur=1 # Core permeability relative to free space - unitless
# 1 is good approx. for air.
# Parameters independent of inductance specification.
number k12=1, # coupling coefficient 0 <= k <= 1 - unitless
# 0 < k << 1 for air; k == 1 for iron.
k13=1,
k23=1,
r1=0, # First winding resistance - Ohms
r2=0, # Second winding resistance - Ohms
r3=0 # Third winding resistance - Ohms
{
m13, # Mutual inductance between 1st and 3rd windings - henries
m23, # Mutual inductance between 2nd and 3rd windings - henries
p, # Permeance of magnetic path - henries/(turn^2)
l1calc, # First winding inductance - henries
l2calc, # Second winding inductance - henries
l3calc, # Third winding inductance - henries
kcheck, # Check value for ks.
u0 # permeability of free space (4*pi*10e-07) Henries/m
#
#
#
<>
这个说来就话长喽，你是旅长喀，这方面应该比我要好很多啊
，随时随地可以“想干就干”了，就是火候还差很多唉！总算一步步在前进着。
