有一个大迟滞延迟系统，分子是0.98，分母是28s+1，延迟时间是12秒，请根据该系统在MATLAB平台设计模糊控制

根据给定的延迟系统，我们可以使用MATLAB来设计模糊控制程序，即计算出模糊控制系统的模糊控制规则。首先，我们可以使用MATLAB来计算模糊控制规则，即根据给定的延迟系统，计算出延迟时间为t=12秒，分子为0.98，分母为28s的模糊控制规则。然后，使用MATLAB的模糊控制函数来实现模糊控制系统，使用模糊控制函数来控制系统的状态，从而达到控制系统延迟时间的目的。

相关问题

为什么你给我的修改exe文件的图标的代码的作用是提取图标，请告诉我正确修改exe文件的图标的代码

修改exe文件的图标需要使用资源编辑器，以下是基于Python的修改exe文件图标的代码示例：

import struct

# 定义PE文件头偏移量常量
IMAGE_DOS_HEADER_OFFSET = 0
IMAGE_NT_HEADERS_OFFSET = 60
IMAGE_OPTIONAL_HEADER_OFFSET = 24
IMAGE_OPTIONAL_HEADER_SIZE_OFFSET = 20
IMAGE_DATA_DIRECTORY_OFFSET = 96
IMAGE_RESOURCE_DIRECTORY_OFFSET = 128

# 定义PE文件资源项常量
RT_ICON = 3
ICON_SIZE = 256

# 定义PE文件头结构体
class IMAGE_DOS_HEADER(struct.Struct):
    _fields_ = [
        ('e_magic', struct.pack('H', 0)),
        ('e_cblp', struct.pack('H', 0)),
        ('e_cp', struct.pack('H', 0)),
        ('e_crlc', struct.pack('H', 0)),
        ('e_cparhdr', struct.pack('H', 0)),
        ('e_minalloc', struct.pack('H', 0)),
        ('e_maxalloc', struct.pack('H', 0)),
        ('e_ss', struct.pack('H', 0)),
        ('e_sp', struct.pack('H', 0)),
        ('e_csum', struct.pack('H', 0)),
        ('e_ip', struct.pack('H', 0)),
        ('e_cs', struct.pack('H', 0)),
        ('e_lfarlc', struct.pack('H', 0)),
        ('e_ovno', struct.pack('H', 0)),
        ('e_res', struct.pack('16s', b'')),
        ('e_oemid', struct.pack('H', 0)),
        ('e_oeminfo', struct.pack('H', 0)),
        ('e_res2', struct.pack('20s', b'')),
        ('e_lfanew', struct.pack('I', 0))
    ]

# 定义PE文件NT头结构体
class IMAGE_NT_HEADERS(struct.Struct):
    _fields_ = [
        ('Signature', struct.pack('I', 0)),
        ('FileHeader', struct.pack('14s', b'')),
        ('OptionalHeader', struct.pack('28s', b''))
    ]

# 定义PE文件可选头结构体
class IMAGE_OPTIONAL_HEADER(struct.Struct):
    _fields_ = [
        ('Magic', struct.pack('H', 0)),
        ('MajorLinkerVersion', struct.pack('B', 0)),
        ('MinorLinkerVersion', struct.pack('B', 0)),
        ('SizeOfCode', struct.pack('I', 0)),
        ('SizeOfInitializedData', struct.pack('I', 0)),
        ('SizeOfUninitializedData', struct.pack('I', 0)),
        ('AddressOfEntryPoint', struct.pack('I', 0)),
        ('BaseOfCode', struct.pack('I', 0)),
        ('ImageBase', struct.pack('I', 0)),
        ('SectionAlignment', struct.pack('I', 0)),
        ('FileAlignment', struct.pack('I', 0)),
        ('MajorOperatingSystemVersion', struct.pack('H', 0)),
        ('MinorOperatingSystemVersion', struct.pack('H', 0)),
        ('MajorImageVersion', struct.pack('H', 0)),
        ('MinorImageVersion', struct.pack('H', 0)),
        ('MajorSubsystemVersion', struct.pack('H', 0)),
        ('MinorSubsystemVersion', struct.pack('H', 0)),
        ('Win32VersionValue', struct.pack('I', 0)),
        ('SizeOfImage', struct.pack('I', 0)),
        ('SizeOfHeaders', struct.pack('I', 0)),
        ('CheckSum', struct.pack('I', 0)),
        ('Subsystem', struct.pack('H', 0)),
        ('DllCharacteristics', struct.pack('H', 0)),
        ('SizeOfStackReserve', struct.pack('I', 0)),
        ('SizeOfStackCommit', struct.pack('I', 0)),
        ('SizeOfHeapReserve', struct.pack('I', 0)),
        ('SizeOfHeapCommit', struct.pack('I', 0)),
        ('LoaderFlags', struct.pack('I', 0)),
        ('NumberOfRvaAndSizes', struct.pack('I', 0)),
        ('DataDirectory', struct.pack('128s', b''))
    ]

# 定义PE文件数据目录结构体
class IMAGE_DATA_DIRECTORY(struct.Struct):
    _fields_ = [
        ('VirtualAddress', struct.pack('I', 0)),
        ('Size', struct.pack('I', 0))
    ]

# 定义PE文件数据块结构体
class IMAGE_RESOURCE_DIRECTORY(struct.Struct):
    _fields_ = [
        ('Characteristics', struct.pack('I', 0)),
        ('TimeDateStamp', struct.pack('I', 0)),
        ('MajorVersion', struct.pack('H', 0)),
        ('MinorVersion', struct.pack('H', 0)),
        ('NumberOfNamedEntries', struct.pack('H', 0)),
        ('NumberOfIdEntries', struct.pack('H', 0))
    ]

# 定义PE文件资源项结构体
class IMAGE_RESOURCE_DIRECTORY_ENTRY(struct.Struct):
    _fields_ = [
        ('Name', struct.pack('I', 0)),
        ('OffsetToData', struct.pack('I', 0))
    ]

# 定义PE文件资源数据块结构体
class IMAGE_RESOURCE_DATA_ENTRY(struct.Struct):
    _fields_ = [
        ('OffsetToData', struct.pack('I', 0)),
        ('Size', struct.pack('I', 0)),
        ('CodePage', struct.pack('I', 0)),
        ('Reserved', struct.pack('I', 0))
    ]

def update_icon(exe_path, icon_path):
    # 打开exe文件
    with open(exe_path, 'rb') as f:
        data = f.read()

    # 获取PE文件头偏移量
    e_lfanew = struct.unpack('I', data[IMAGE_DOS_HEADER_OFFSET + 60:IMAGE_DOS_HEADER_OFFSET + 64])[0]

    # 获取PE文件NT头
    nt_header = data[e_lfanew:e_lfanew + IMAGE_NT_HEADERS_OFFSET]

    # 获取PE文件可选头大小
    optional_header_size = struct.unpack('H', nt_header[IMAGE_OPTIONAL_HEADER_OFFSET:IMAGE_OPTIONAL_HEADER_OFFSET + 2])[0]

    # 获取PE文件可选头
    optional_header = data[e_lfanew + IMAGE_NT_HEADERS_OFFSET:e_lfanew + IMAGE_NT_HEADERS_OFFSET + optional_header_size]

    # 获取PE文件数据目录
    data_directory = optional_header[IMAGE_DATA_DIRECTORY_OFFSET:IMAGE_DATA_DIRECTORY_OFFSET + 8]

    # 获取PE文件数据块
    resource_directory_data = data[e_lfanew + struct.unpack('I', data_directory[IMAGE_RESOURCE_DIRECTORY_OFFSET:IMAGE_RESOURCE_DIRECTORY_OFFSET + 4])[0]:]

    # 获取PE文件资源目录
    resource_directory = IMAGE_RESOURCE_DIRECTORY(resource_directory_data[:struct.calcsize(IMAGE_RESOURCE_DIRECTORY._format)])

    # 获取PE文件资源项
    resource_directory_entries = []
    for i in range(struct.unpack('H', resource_directory.NumberOfIdEntries)[0] + struct.unpack('H', resource_directory.NumberOfNamedEntries)[0]):
        entry_data = resource_directory_data[struct.calcsize(IMAGE_RESOURCE_DIRECTORY._format) + i * struct.calcsize(IMAGE_RESOURCE_DIRECTORY_ENTRY._format):]
        entry = IMAGE_RESOURCE_DIRECTORY_ENTRY(entry_data[:struct.calcsize(IMAGE_RESOURCE_DIRECTORY_ENTRY._format)])
        resource_directory_entries.append(entry)

    # 获取PE文件资源数据块
    resource_data_entries = []
    for entry in resource_directory_entries:
        resource_data_entry_data = resource_directory_data[struct.unpack('I', entry.OffsetToData)[0]:]
        resource_data_entry = IMAGE_RESOURCE_DATA_ENTRY(resource_data_entry_data[:struct.calcsize(IMAGE_RESOURCE_DATA_ENTRY._format)])
        resource_data_entries.append(resource_data_entry)

    # 获取PE文件图标资源项
    icon_resource_index = -1
    for i in range(len(resource_directory_entries)):
        if struct.unpack('I', resource_directory_entries[i].Name)[0] == RT_ICON:
            icon_resource_index = i
            break

    # 获取PE文件图标资源数据块
    icon_resource_data_entry = resource_data_entries[icon_resource_index]
    icon_resource_data = data[e_lfanew + struct.unpack('I', icon_resource_data_entry.OffsetToData)[0]:e_lfanew + struct.unpack('I', icon_resource_data_entry.OffsetToData)[0] + struct.unpack('I', icon_resource_data_entry.Size)[0]]

    # 获取PE文件图标数
    icon_count = struct.unpack('H', icon_resource_data[4:6])[0]

    # 获取PE文件图标信息
    icon_info_size = struct.unpack('H', icon_resource_data[0:2])[0]
    icon_info = icon_resource_data[6:6 + icon_count * 16]

    # 获取PE文件图标数据
    icon_data = icon_resource_data[6 + icon_count * 16:]
    icon_data_offset = []
    for i in range(icon_count):
        icon_data_offset.append(struct.unpack('I', icon_info[i * 16 + 12:i * 16 + 16])[0])

    # 加载新图标
    with open(icon_path, 'rb') as f:
        new_icon_data = f.read()

    # 替换PE文件图标
    new_icon_data_size = len(new_icon_data)
    if new_icon_data_size == ICON_SIZE * ICON_SIZE * 4:
        for i in range(icon_count):
            icon_data_size = struct.unpack('I', icon_data[icon_data_offset[i]:icon_data_offset[i] + 4])[0]
            if icon_data_size == ICON_SIZE * ICON_SIZE * 4:
                icon_data = icon_data[:icon_data_offset[i] + 6] + new_icon_data + icon_data[icon_data_offset[i] + 6 + icon_data_size:]
                break

    # 更新PE文件数据块大小
    icon_resource_data_entry.Size = struct.pack('I', len(icon_resource_data) - struct.calcsize(IMAGE_RESOURCE_DATA_ENTRY._format) + len(icon_data))

    # 更新PE文件数据块偏移量
    offset = struct.unpack('I', data_directory[IMAGE_RESOURCE_DIRECTORY_OFFSET:IMAGE_RESOURCE_DIRECTORY_OFFSET + 4])[0] + struct.unpack('I', resource_directory_entries[icon_resource_index].OffsetToData)[0]
    data = data[:e_lfanew + offset] + icon_data + data[e_lfanew + offset + len(icon_data):]

    # 写入修改后的exe文件
    with open(exe_path, 'wb') as f:
        f.write(data)

这段代码可以打开exe文件，找到exe文件的图标资源，替换成新的图标，并将修改后的内容写回exe文件。

请编写一个html实现太阳系运动效果

好的，我可以回答这个问题。以下是一个简单的HTML代码，可以实现太阳系的运动效果：

<!DOCTYPE html>
<html>
<head>
	<title>太阳系运动效果</title>
	<style>
		body {
			background-color: black;
		}
		.sun {
			position: absolute;
			top: 50%;
			left: 50%;
			transform: translate(-50%, -50%);
			width: 100px;
			height: 100px;
			border-radius: 50%;
			background-color: yellow;
			box-shadow: 0 0 50px 10px yellow;
		}
		.planet {
			position: absolute;
			top: 50%;
			left: 50%;
			transform-origin: top left;
			width: 20px;
			height: 20px;
			border-radius: 50%;
			background-color: white;
			box-shadow: 0 0 10px 5px white;
		}
		.mercury {
			animation: mercury-orbit 4s linear infinite;
		}
		.venus {
			animation: venus-orbit 8s linear infinite;
		}
		.earth {
			animation: earth-orbit 12s linear infinite;
		}
		.mars {
			animation: mars-orbit 16s linear infinite;
		}
		.jupiter {
			animation: jupiter-orbit 20s linear infinite;
		}
		.saturn {
			animation: saturn-orbit 24s linear infinite;
		}
		.uranus {
			animation: uranus-orbit 28s linear infinite;
		}
		.neptune {
			animation: neptune-orbit 32s linear infinite;
		}
		@keyframes mercury-orbit {
			from {
				transform: rotate(0deg) translateX(50px) rotate(0deg);
			}
			to {
				transform: rotate(360deg) translateX(50px) rotate(-360deg);
			}
		}
		@keyframes venus-orbit {
			from {
				transform: rotate(0deg) translateX(80px) rotate(0deg);
			}
			to {
				transform: rotate(360deg) translateX(80px) rotate(-360deg);
			}
		}
		@keyframes earth-orbit {
			from {
				transform: rotate(0deg) translateX(110px) rotate(0deg);
			}
			to {
				transform: rotate(360deg) translateX(110px) rotate(-360deg);
			}
		}
		@keyframes mars-orbit {
			from {
				transform: rotate(0deg) translateX(140px) rotate(0deg);
			}
			to {
				transform: rotate(360deg) translateX(140px) rotate(-360deg);
			}
		}
		@keyframes jupiter-orbit {
			from {
				transform: rotate(0deg) translateX(170px) rotate(0deg);
			}
			to {
				transform: rotate(360deg) translateX(170px) rotate(-360deg);
			}
		}
		@keyframes saturn-orbit {
			from {
				transform: rotate(0deg) translateX(200px) rotate(0deg);
			}
			to {
				transform: rotate(360deg) translateX(200px) rotate(-360deg);
			}
		}
		@keyframes uranus-orbit {
			from {
				transform: rotate(0deg) translateX(230px) rotate(0deg);
			}
			to {
				transform: rotate(360deg) translateX(230px) rotate(-360deg);
			}
		}
		@keyframes neptune-orbit {
			from {
				transform: rotate(0deg) translateX(260px) rotate(0deg);
			}
			to {
				transform: rotate(360deg) translateX(260px) rotate(-360deg);
			}
		}
	</style>
</head>
<body>
	<div class="sun"></div>
	<div class="planet mercury"></div>
	<div class="planet venus"></div>
	<div class="planet earth"></div>
	<div class="planet mars"></div>
	<div class="planet jupiter"></div>
	<div class="planet saturn"></div>
	<div class="planet uranus"></div>
	<div class="planet neptune"></div>
</body>
</html>

这段代码使用了CSS的动画和变换功能，通过给每个行星添加不同的动画，实现了太阳系行星的运动效果。