1. 概述本文档提供了网络设备技术文章的专用批量修复和校验脚本,针对网络设备领域的特殊术语和技术规范进行了优化。

2. 网络设备专用修复脚本2.1 网络术语标准化脚本#!/bin/bash

set -e

# 配置参数

SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"

PROJECT_ROOT="$(dirname "$SCRIPT_DIR")"

NETWORK_TERMS_FILE="${SCRIPT_DIR}/config/network-terms.json"

BACKUP_DIR="${PROJECT_ROOT}/backups/network-$(date +%Y%m%d_%H%M%S)"

REPORT_DIR="${PROJECT_ROOT}/reports"

LOG_FILE="${REPORT_DIR}/network-repair-$(date +%Y%m%d).log"

# 创建必要目录

mkdir -p "$BACKUP_DIR" "$REPORT_DIR"

# 日志函数

log() {

echo "[$(date '+%Y-%m-%d %H:%M:%S')] $1" | tee -a "$LOG_FILE"

}

# 显示使用帮助

show_usage() {

cat << EOF

用法: $0 [选项]

选项:

-d, --dir <目录> 目标目录 (默认: ./计算机硬件/网络设备)

-f, --file <文件> 单个文件修复

-t, --type <类型> 修复类型: all|ethernet|virtualization|performance

-s, --speed <速率> 指定以太网速率: 10G|25G|40G|100G|400G

-m, --mode <模式> 执行模式: repair|dry-run|validate-only

-b, --backup 创建备份 (默认: true)

-r, --report <文件> 生成修复报告

-v, --verbose 详细输出

-h, --help 显示此帮助

示例:

$0 --dir ./计算机硬件/网络设备 --type all --mode repair

$0 --file 10gbe-intel-x550.md --type ethernet --mode dry-run

$0 --speed 100G --type performance --report network-report.json

EOF

}

# 默认参数

TARGET_DIR="${PROJECT_ROOT}/计算机硬件/网络设备"

TARGET_FILE=""

REPAIR_TYPE="all"

ETHERNET_SPEED=""

EXEC_MODE="repair"

CREATE_BACKUP=true

VERBOSE=false

REPORT_FILE=""

# 解析命令行参数

while [[ $# -gt 0 ]]; do

case $1 in

-d|--dir)

TARGET_DIR="$2"

shift 2

;;

-f|--file)

TARGET_FILE="$2"

shift 2

;;

-t|--type)

REPAIR_TYPE="$2"

shift 2

;;

-s|--speed)

ETHERNET_SPEED="$2"

shift 2

;;

-m|--mode)

EXEC_MODE="$2"

shift 2

;;

-b|--backup)

CREATE_BACKUP=true

shift

;;

-r|--report)

REPORT_FILE="$2"

shift 2

;;

-v|--verbose)

VERBOSE=true

shift

;;

-h|--help)

show_usage

exit 0

;;

*)

echo "未知参数: $1"

show_usage

exit 1

;;

esac

done

# 验证参数

validate_args() {

if [[ -n "$TARGET_FILE" && ! -f "$TARGET_FILE" ]]; then

log "错误: 文件不存在: $TARGET_FILE"

exit 1

fi

if [[ -z "$TARGET_FILE" && ! -d "$TARGET_DIR" ]]; then

log "错误: 目录不存在: $TARGET_DIR"

exit 1

fi

if [[ ! "$REPAIR_TYPE" =~ ^(all|ethernet|virtualization|performance)$ ]]; then

log "错误: 无效的网络修复类型: $REPAIR_TYPE"

exit 1

fi

if [[ -n "$ETHERNET_SPEED" && ! "$ETHERNET_SPEED" =~ ^(10G|25G|40G|100G|400G)$ ]]; then

log "错误: 无效的以太网速率: $ETHERNET_SPEED"

exit 1

fi

}

# 创建备份

create_backup() {

if [[ "$CREATE_BACKUP" == true && "$EXEC_MODE" != "dry-run" ]]; then

log "创建网络设备文件备份到: $BACKUP_DIR"

if [[ -n "$TARGET_FILE" ]]; then

cp "$TARGET_FILE" "$BACKUP_DIR/"

else

cp -r "$TARGET_DIR" "$BACKUP_DIR/"

fi

log "备份完成"

fi

}

# 执行网络术语修复

execute_network_repair() {

log "开始网络设备术语修复..."

log "目标: ${TARGET_FILE:-$TARGET_DIR}"

log "修复类型: $REPAIR_TYPE"

log "执行模式: $EXEC_MODE"

# 构建Node.js修复命令

local node_cmd="node ${SCRIPT_DIR}/tools/network-terminology-repair.js"

if [[ -n "$TARGET_FILE" ]]; then

node_cmd+=" --file=$TARGET_FILE"

else

node_cmd+=" --dir=$TARGET_DIR"

fi

node_cmd+=" --type=$REPAIR_TYPE"

node_cmd+=" --mode=$EXEC_MODE"

if [[ -n "$ETHERNET_SPEED" ]]; then

node_cmd+=" --speed=$ETHERNET_SPEED"

fi

if [[ "$VERBOSE" == true ]]; then

node_cmd+=" --verbose"

fi

if [[ -n "$REPORT_FILE" ]]; then

node_cmd+=" --report=$REPORT_FILE"

fi

# 执行修复

if [[ "$EXEC_MODE" == "dry-run" ]]; then

log "干运行模式 - 不实际修改文件"

fi

eval $node_cmd

local exit_code=$?

if [[ $exit_code -eq 0 ]]; then

log "网络术语修复完成"

else

log "网络术语修复失败,退出码: $exit_code"

exit $exit_code

fi

}

# 验证修复结果

validate_network_repair() {

if [[ "$EXEC_MODE" != "validate-only" ]]; then

log "开始验证网络术语修复结果..."

node "${SCRIPT_DIR}/tools/validate-network-repair.js" \

--target="${TARGET_FILE:-$TARGET_DIR}" \

--type="$REPAIR_TYPE" \

--report="${REPORT_DIR}/network-validation-$(date +%Y%m%d_%H%M%S).json"

log "网络术语验证完成"

fi

}

# 主函数

main() {

log "网络设备术语修复脚本启动"

validate_args

if [[ "$EXEC_MODE" != "dry-run" ]]; then

create_backup

fi

execute_network_repair

validate_network_repair

log "所有网络术语修复任务完成"

}

# 错误处理

trap 'log "网络术语修复脚本执行中断"; exit 130' INT TERM

# 执行主函数

main "$@"

2.2 网络性能验证脚本#!/bin/bash

# network-performance-validator.sh - 网络性能指标验证专用脚本

set -e

# 配置参数

SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"

PROJECT_ROOT="$(dirname "$SCRIPT_DIR")"

NETWORK_PERFORMANCE_RULES="${SCRIPT_DIR}/config/network-performance-rules.json"

REPORT_DIR="${PROJECT_ROOT}/reports"

LOG_FILE="${REPORT_DIR}/network-performance-$(date +%Y%m%d).log"

# 创建必要目录

mkdir -p "$REPORT_DIR"

# 日志函数

log() {

echo "[$(date '+%Y-%m-%d %H:%M:%S')] $1" | tee -a "$LOG_FILE"

}

# 显示使用帮助

show_usage() {

cat << EOF

用法: $0 [选项]

选项:

-d, --dir <目录> 目标目录 (默认: ./计算机硬件/网络设备)

-f, --file <文件> 验证单个文件

-s, --standard <标准> 验证标准: strict|normal|loose

-t, --type <类型> 验证类型: throughput|latency|packet-loss|all

-r, --report <文件> 生成验证报告

-q, --quick 快速验证模式

-v, --verbose 详细输出

-h, --help 显示此帮助

示例:

$0 --dir ./计算机硬件/网络设备 --standard strict --type all

$0 --file 100gbe-test.md --type throughput --report performance.json

$0 --speed 25G --type latency --quick

EOF

}

# 默认参数

TARGET_DIR="${PROJECT_ROOT}/计算机硬件/网络设备"

TARGET_FILE=""

VALIDATION_STANDARD="normal"

VALIDATION_TYPE="all"

QUICK_MODE=false

VERBOSE=false

REPORT_FILE=""

# 解析命令行参数

while [[ $# -gt 0 ]]; do

case $1 in

-d|--dir)

TARGET_DIR="$2"

shift 2

;;

-f|--file)

TARGET_FILE="$2"

shift 2

;;

-s|--standard)

VALIDATION_STANDARD="$2"

shift 2

;;

-t|--type)

VALIDATION_TYPE="$2"

shift 2

;;

-r|--report)

REPORT_FILE="$2"

shift 2

;;

-q|--quick)

QUICK_MODE=true

shift

;;

-v|--verbose)

VERBOSE=true

shift

;;

-h|--help)

show_usage

exit 0

;;

*)

echo "未知参数: $1"

show_usage

exit 1

;;

esac

done

# 执行网络性能验证

execute_performance_validation() {

log "开始网络性能指标验证..."

log "目标: ${TARGET_FILE:-$TARGET_DIR}"

log "验证标准: $VALIDATION_STANDARD"

log "验证类型: $VALIDATION_TYPE"

# 构建Node.js验证命令

local node_cmd="node ${SCRIPT_DIR}/tools/network-performance-validator.js"

if [[ -n "$TARGET_FILE" ]]; then

node_cmd+=" --file=$TARGET_FILE"

else

node_cmd+=" --dir=$TARGET_DIR"

fi

node_cmd+=" --standard=$VALIDATION_STANDARD"

node_cmd+=" --type=$VALIDATION_TYPE"

if [[ "$QUICK_MODE" == true ]]; then

node_cmd+=" --quick"

fi

if [[ "$VERBOSE" == true ]]; then

node_cmd+=" --verbose"

fi

if [[ -n "$REPORT_FILE" ]]; then

node_cmd+=" --report=$REPORT_FILE"

fi

# 执行验证

eval $node_cmd

local exit_code=$?

if [[ $exit_code -eq 0 ]]; then

log "网络性能验证完成"

else

log "网络性能验证失败,退出码: $exit_code"

exit $exit_code

fi

}

# 主函数

main() {

log "网络性能验证脚本启动"

execute_performance_validation

log "网络性能验证任务完成"

}

# 错误处理

trap 'log "网络性能验证脚本执行中断"; exit 130' INT TERM

# 执行主函数

main "$@"

3. 网络设备专用Node.js工具3.1 网络术语修复引擎// tools/network-terminology-repair.js

const fs = require('fs').promises;

const path = require('path');

const matter = require('gray-matter');

const { glob } = require('glob');

class NetworkTerminologyRepair {

constructor(config) {

this.config = config;

this.networkTerms = this.loadNetworkTerms();

this.ethernetSpeeds = {

'10G': '10GbE',

'25G': '25GbE',

'40G': '40GbE',

'100G': '100GbE',

'400G': '400GbE'

};

this.stats = {

filesProcessed: 0,

networkTermsFixed: 0,

performanceMetricsFixed: 0,

errors: []

};

}

loadNetworkTerms() {

try {

return JSON.parse(fs.readFileSync('./config/network-terms.json', 'utf8'));

} catch (error) {

console.warn('网络术语库加载失败,使用内置术语库');

return this.getBuiltInNetworkTerms();

}

}

getBuiltInNetworkTerms() {

return {

ethernet: {

'10gbe': '10GbE',

'10g': '10GbE',

'10 gigabit': '10 Gigabit Ethernet',

'25gbe': '25GbE',

'25g': '25GbE',

'40gbe': '40GbE',

'40g': '40GbE',

'100gbe': '100GbE',

'100g': '100GbE',

'400gbe': '400GbE',

'400g': '400GbE'

},

virtualization: {

'sr-iov': 'SR-IOV',

'sriov': 'SR-IOV',

'vxlan': 'VXLAN',

'geneve': 'GENEVE',

'gre': 'GRE'

},

performance: {

'throughput': '吞吐率',

'bandwidth': '带宽',

'latency': '延迟',

'pps': 'PPS',

'mpps': 'Mpps',

'packet loss': '丢包率'

},

protocols: {

'tcp/ip': 'TCP/IP',

'udp': 'UDP',

'icmp': 'ICMP',

'arp': 'ARP',

'qos': 'QoS',

'ecn': 'ECN'

}

};

}

async repairFile(filePath, options = {}) {

try {

const content = await fs.readFile(filePath, 'utf8');

const { data, content: body } = matter(content);

let repairedBody = body;

let repairLog = [];

// 1. 修复以太网速率术语

if (options.type === 'all' || options.type === 'ethernet') {

const ethernetRepairs = await this.repairEthernetTerms(repairedBody);

repairedBody = ethernetRepairs.content;

repairLog.push(...ethernetRepairs.log);

}

// 2. 修复虚拟化术语

if (options.type === 'all' || options.type === 'virtualization') {

const virtRepairs = await this.repairVirtualizationTerms(repairedBody);

repairedBody = virtRepairs.content;

repairLog.push(...virtRepairs.log);

}

// 3. 修复性能指标术语

if (options.type === 'all' || options.type === 'performance') {

const perfRepairs = await this.repairPerformanceTerms(repairedBody);

repairedBody = perfRepairs.content;

repairLog.push(...perfRepairs.log);

}

// 4. 修复协议术语

if (options.type === 'all') {

const protocolRepairs = await this.repairProtocolTerms(repairedBody);

repairedBody = protocolRepairs.content;

repairLog.push(...protocolRepairs.log);

}

// 5. 验证性能指标格式

const metricValidation = await this.validatePerformanceMetrics(repairedBody);

if (metricValidation.hasIssues) {

repairedBody = metricValidation.repairedContent;

repairLog.push(...metricValidation.log);

}

// 应用修复

if (options.mode === 'repair' && repairLog.length > 0) {

const repaired = matter(repairedBody, data);

await fs.writeFile(filePath, repaired);

this.stats.filesProcessed++;

this.stats.networkTermsFixed += repairLog.filter(log => log.type === 'terminology').length;

this.stats.performanceMetricsFixed += repairLog.filter(log => log.type === 'performance').length;

}

return {

filePath,

repairs: repairLog,

hasRepairs: repairLog.length > 0

};

} catch (error) {

this.stats.errors.push({ file: filePath, error: error.message });

return {

filePath,

error: error.message,

hasRepairs: false

};

}

}

async repairEthernetTerms(content) {

const repairs = [];

let repairedContent = content;

for (const [nonStandard, standard] of Object.entries(this.networkTerms.ethernet)) {

const regex = new RegExp(\\b${nonStandard}\\b, 'gi');

const matches = repairedContent.match(regex);

if (matches) {

repairedContent = repairedContent.replace(regex, standard);

repairs.push({

type: 'terminology',

category: 'ethernet',

original: nonStandard,

replacement: standard,

count: matches.length

});

}

}

return { content: repairedContent, log: repairs };

}

async repairPerformanceTerms(content) {

const repairs = [];

let repairedContent = content;

// 修复性能指标术语

for (const [nonStandard, standard] of Object.entries(this.networkTerms.performance)) {

const regex = new RegExp(\\b${nonStandard}\\b, 'gi');

const matches = repairedContent.match(regex);

if (matches) {

repairedContent = repairedContent.replace(regex, standard);

repairs.push({

type: 'performance',

category: 'metrics',

original: nonStandard,

replacement: standard,

count: matches.length

});

}

}

return { content: repairedContent, log: repairs };

}

async validatePerformanceMetrics(content) {

const issues = [];

let repairedContent = content;

// 验证吞吐率格式

const throughputRegex = /(\d+(?:\.\d+)?)\s*(Gbps|Mbps|Kbps)/g;

const throughputMatches = [...content.matchAll(throughputRegex)];

for (const match of throughputMatches) {

const value = parseFloat(match[1]);

const unit = match[2];

// 验证数值合理性

if (value > 1000 && unit === 'Gbps') {

issues.push({

type: 'performance',

category: 'validation',

issue: 'throughput_too_high',

value: match[0],

suggestion: '请验证吞吐率数值是否准确'

});

}

}

// 验证延迟格式

const latencyRegex = /(\d+(?:\.\d+)?)\s*(μs|ms|ns)/g;

const latencyMatches = [...content.matchAll(latencyRegex)];

for (const match of latencyMatches) {

const value = parseFloat(match[1]);

const unit = match[2];

// 验证延迟数值合理性

if (unit === 'μs' && value > 10000) {

issues.push({

type: 'performance',

category: 'validation',

issue: 'latency_too_high',

value: match[0],

suggestion: '延迟数值过高,请检查单位或数值'

});

}

}

return {

hasIssues: issues.length > 0,

repairedContent: repairedContent,

log: issues

};

}

async generateReport() {

const report = {

timestamp: new Date().toISOString(),

summary: {

filesProcessed: this.stats.filesProcessed,

networkTermsFixed: this.stats.networkTermsFixed,

performanceMetricsFixed: this.stats.performanceMetricsFixed,

errors: this.stats.errors.length

},

errors: this.stats.errors

};

return report;

}

}

// 命令行接口

if (require.main === module) {

const args = process.argv.slice(2);

const options = {};

// 解析命令行参数

for (let i = 0; i < args.length; i += 2) {

const key = args[i].replace('--', '').replace('-', '');

const value = args[i + 1];

switch (key) {

case 'file':

options.file = value;

break;

case 'dir':

options.dir = value;

break;

case 'type':

options.type = value;

break;

case 'mode':

options.mode = value;

break;

case 'speed':

options.speed = value;

break;

case 'report':

options.report = value;

break;

case 'verbose':

options.verbose = true;

break;

}

}

const repair = new NetworkTerminologyRepair();

(async () => {

try {

let results = [];

if (options.file) {

// 处理单个文件

const result = await repair.repairFile(options.file, options);

results.push(result);

} else if (options.dir) {

// 处理目录

const files = await glob('**/*.md', { cwd: options.dir });

for (const file of files) {

const filePath = path.join(options.dir, file);

const result = await repair.repairFile(filePath, options);

results.push(result);

if (options.verbose) {

console.log(处理文件: ${file} - ${result.hasRepairs ? '有修复' : '无修复'});

}

}

}

// 生成报告

const report = await repair.generateReport();

if (options.report) {

await fs.writeFile(options.report, JSON.stringify(report, null, 2));

console.log(修复报告已保存: ${options.report});

}

// 输出统计信息

console.log('\n=== 网络术语修复统计 ===');

console.log(处理文件: ${report.summary.filesProcessed});

console.log(网络术语修复: ${report.summary.networkTermsFixed});

console.log(性能指标修复: ${report.summary.performanceMetricsFixed});

console.log(错误数量: ${report.summary.errors});

if (options.mode === 'dry-run') {

console.log('(干运行模式 - 未实际修改文件)');

}

} catch (error) {

console.error('网络术语修复失败:', error);

process.exit(1);

}

})();

}

module.exports = NetworkTerminologyRepair;

4. 执行命令示例4.1 网络术语标准化# 修复整个网络设备目录

./scripts/network-terminology-repair.sh --dir ./计算机硬件/网络设备 --type all --mode repair --verbose

# 仅修复以太网相关术语

./scripts/network-terminology-repair.sh --dir ./计算机硬件/网络设备 --type ethernet --mode dry-run

# 修复特定速率网络设备

./scripts/network-terminology-repair.sh --dir ./计算机硬件/网络设备 --speed 100G --type performance --mode repair

# 修复单个文件

./scripts/network-terminology-repair.sh --file "计算机硬件-网络设备-100GbE-性能评测.md" --type all --mode repair --backup

4.2 网络性能验证# 全面验证网络性能指标

./scripts/network-performance-validator.sh --dir ./计算机硬件/网络设备 --standard strict --type all

# 快速验证吞吐率指标

./scripts/network-performance-validator.sh --dir ./计算机硬件/网络设备 --type throughput --quick

# 验证延迟指标并生成报告

./scripts/network-performance-validator.sh --file "网络延迟测试.md" --type latency --report latency-validation.json

5. 网络设备专用配置文件5.1 网络术语库配置// config/network-terms.json

{

"ethernet": {

"10gbe": "10GbE",

"10g": "10GbE",

"25gbe": "25GbE",

"25g": "25GbE",

"40gbe": "40GbE",

"40g": "40GbE",

"100gbe": "100GbE",

"100g": "100GbE",

"400gbe": "400GbE",

"400g": "400GbE"

},

"virtualization": {

"sr-iov": "SR-IOV",

"sriov": "SR-IOV",

"vxlan": "VXLAN",

"geneve": "GENEVE",

"gre": "GRE",

"nvgre": "NVGRE"

},

"performance": {

"throughput": "吞吐率",

"bandwidth": "带宽",

"latency": "延迟",

"pps": "PPS",

"mpps": "Mpps",

"packet loss": "丢包率",

"jitter": "抖动"

},

"protocols": {

"tcp/ip": "TCP/IP",

"udp": "UDP",

"icmp": "ICMP",

"arp": "ARP",

"qos": "QoS",

"ecn": "ECN",

"dscp": "DSCP"

},

"hardware": {

"nic": "NIC",

"hnic": "HNIC",

"rdma": "RDMA",

"roce": "RoCE",

"rocev2": "RoCE v2"

}

}

5.2 网络性能验证规则// config/network-performance-rules.json

{

"throughput": {

"units": ["Gbps", "Mbps", "Kbps"],

"ranges": {

"10GbE": { "min": 9.5, "max": 10.5, "unit": "Gbps" },

"25GbE": { "min": 24, "max": 26, "unit": "Gbps" },

"40GbE": { "min": 38, "max": 42, "unit": "Gbps" },

"100GbE": { "min": 95, "max": 105, "unit": "Gbps" },

"400GbE": { "min": 380, "max": 420, "unit": "Gbps" }

}

},

"latency": {

"units": ["μs", "ms", "ns"],

"thresholds": {

"excellent": { "value": 1, "unit": "μs" },

"good": { "value": 5, "unit": "μs" },

"acceptable": { "value": 10, "unit": "μs" }

}

},

"packet_loss": {

"max_acceptable": 0.001,

"unit": "percentage"

},

"pps": {

"units": ["Mpps", "Kpps"],

"conversion": {

"10GbE": { "64B": 14.88, "128B": 8.45, "256B": 4.64 },

"25GbE": { "64B": 37.2, "128B": 21.13, "256B": 11.6 },

"100GbE": { "64B": 148.8, "128B": 84.5, "256B": 46.4 }

}

}

}

通过以上网络设备专用的可执行更新脚本,可以确保网络设备技术文章在术语使用、性能指标、技术规范等方面达到高度标准化和专业化的要求。这些脚本专门针对网络设备领域的特殊需求进行了优化,能够有效提升文章质量和一致性。

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