我的征尘是星辰大海。。。

The dirt and dust from my pilgrimage forms oceans of stars...

-------当记忆的篇章变得零碎，当追忆的图片变得模糊，我们只能求助于数字存储的永恒的回忆

作者:黄教授

手机视频列表

煤城的电流

视频

音频

原始脚本

雷城的电流，在山西小镇看见中国汽车文明的跃迁。
在山西的街巷里行走，很容易被两种景象同时打动，一种是街头巷尾随处可见的充电桩。
带密码锁的桩体静静立在临街店铺门口，像一张细密的网，悄悄改变着小镇的生活节奏。
另一种是公路上往来不断的车辆。
从家用代步车到运煤重卡，车轮碾过街巷，藏着比海外小城更鲜活的汽车普及景象。
而当一辆印有 EV 标识的白色电动重卡缓缓驶过。
驾驶室后方的电池箱体格外醒目。
再看向中石化站点里，原本的加油机旁立起石化易电充电桩，旁边方方正正的箱式变压器默默运转。
那一刻，关于能源、生活与时代发展的种种画面，瞬间拼成了完整的图景。
这不是偶然的场景，当私人充电桩带着密码锁出现在小镇商铺门口。
当运煤重卡告别传统燃油，改用电力出行。
当中石化的站点悄然增设充电设施，我们看到的不只是汽车动力形式的变化。
更是国内能源使用模式与产业生态的积极转变。
山西这片土地曾长期是传统燃油重卡的主要运行区域，运煤车辆在道路上往来穿梭。
柴油车辆的行驶痕迹与煤尘相伴。
较高的燃油消耗既增加了货车司机的运营成本，也给环境带来了一定负担。
那时的货运重卡高度依赖燃油，成本压力始终是从业者的心头事。
而电力的接入，让这一切有了全新改变。
电动重卡百公里电耗相对可控。
按日常电价计算，每公里能源成本远低于柴油车。
没有发动机、变速箱等复杂部件的频繁保养，维保成本大幅降低。
更便捷的是车电分离的模式，让司机无需承担高额电池购置费用，只需支付合理租金，就能大幅减轻运营压力。
对以运煤为生的司机来说。
每一公里省下的成本，都是实实在在的收入提升。
对山西这个以煤炭为重要产业的省份而言，从直接燃煤燃油到煤炭转化为清洁电力。
是让传统能源实现更高效环保利用，让曾经的能源输出地走上绿色循环的发展新路。
小镇里的私人充电桩，是这场能源变革最贴近生活的体现。
在海外一些小城，汽车普及依托的是成熟的石油供应体系。
而在中国的内陆小镇，尤其是山西这样的地区，汽车普及的背后。
是电力能源网络的全面覆盖。
临街店铺门口的充电桩并非统一规划的大型设施，而是普通民众顺应时代的自主选择。
店主在自家门口装桩，既方便自己用车，也能为过往车辆提供充电便利。
居民不用专程跑远补能，在家门口就能完成充电，这份便捷是传统燃油车难以比拟的。
当一辆辆电动车有序停靠充电，充电枪连接的不只是车辆电池。
更是小镇居民紧跟时代的生活选择。
这里没有过度依赖石油能源的模式，却以更灵活、更接地气的方式实现了汽车的广泛普及。
也完成了日常能源使用习惯的平稳转变。
更值得关注的是传统能源企业的积极转型。
中石化的加油站曾是燃油时代极具代表性的设施。
深埋地下的储油设备、完善的油品储运系统、严格的安全防护流程。
一座加油站从选址到建成需要耗费大量时间与资金。
还要落实层层安全管控，是支撑燃油出行的重要枢纽。
而如今，在同样的场地内，只需一个集装箱式的箱式变压器，搭配数台充电桩。
就能快速打造出石化易电充电站点。
这个看似普通的箱体集成了变电、配电等核心功能，直接接入电网即可转化为适配车辆的快充电源。
整个部署周期短，施工简便，无需复杂的储油、油气处理流程，安全管理也更简便高效。
这种从供油到供电的拓展。
不只是设备的简单替换，更是能源基础设施建设逻辑的升级。
传统燃油设施笨重，建设周期长，而电力充电设施模块化。
易复制，部署快。
中石化依托多年搭建的站点网络，快速改造升级为充电服务网点。
这样的转型速度在传统燃油时代很难实现。
这场能源与出行的变革并非单纯的政策推动，更多是源于市场与民众的实际需求。
对运煤司机而言，选择电动重卡不是单纯的环保理念。
而是看得见算得清的成本账。
传统柴油重卡每年油费、维保、尿素费用高昂，是一笔不小的开支。
而电动重卡。
即便按常规充电价格计算，每年能源与维保成本大幅降低，一年省下的费用十分可观。
这种实打实的成本优势在高频运营的货运场景中格外突出。
也让司机们主动选择电动重卡。
对小镇居民来说，选择电动车核心也是使用成本的差异，每公里极低的电费，日积月累下。
远低于燃油开销。
而家门口的私人充电桩、企业改造的充电站点，彻底解决了补能难题，让电动车不再是大城市的专属。
成为小镇居民的日常代步首选。
尤为巧妙的是，山西这个煤炭资源丰富的省份，正形成一套完整的能源循环体系。
本地产出的煤炭转化为清洁电力，通过电网输送到各个充电站点，既驱动着运煤电动重卡，也为小镇家用电动车提供动力。
曾经的煤炭产业链，从开采、运输、直接燃烧，转变为开采、发电、高效用电、污染集中处理、清洁动力，汇集千家万户。
这不是简单的能源替换。
而是能源利用方式的优化，让传统煤炭资源以更绿色高效的形态支撑着区域发展。
漫步在山西小镇。
看着满街的电动车，带密码锁的充电桩，看着电动重卡平稳驶过，看着传统加油站升级为充电站点，我们看到的不只是汽车的高度普及。
更是一条独具特色的新能源发展路径。
海外小城的汽车文明依托传统石油产业体系，而中国小镇的汽车普及依托的是全覆盖的电力网络。
快速崛起的新能源产业，以及普通民众对美好生活的务实追求。
这条路径没有照搬现有模式，却以更贴近民生、更具韧性的方式。
实现了能源体系的绿色升级。
未来，随着充电桩布局越来越完善，电动重卡越来越普及，传统能源站点的转型越来越深入。
我们回望如今的山西，会发现这里发生的不只是一场能源领域的变革，更是一场关乎普通人生活的美好转变。
那些带密码锁的充电桩、平稳行驶的电动重卡。
简洁高效的箱式变压器，都是这场变革最生动的印记，也是中国汽车文明与能源转型的真实见证。

修正脚本

循着电流，在山西小镇看见中国汽车文明的跃迁。
在山西的街巷里行走，很容易被两种景象同时打动，一种是街头巷尾随处可见的充电桩。
带密码锁的桩体静静立在临街店铺门口，像一张细密的网，悄悄改变着小镇的生活节奏。
另一种是公路上往来不断的车辆。
从家用代步车到运煤重卡，车轮碾过街巷，藏着比海外小城更鲜活的汽车普及景象。
而当一辆印有 EV 标识的白色电动重卡缓缓驶过。
驾驶室后方的电池箱体格外醒目。
再看向中石化站点里，原本的加油机旁立起石化易电充电桩，旁边方方正正的箱式变压器默默运转。
那一刻，关于能源、生活与时代发展的种种画面，瞬间拼成了完整的图景。
这不是偶然的场景，当私人充电桩带着密码锁出现在小镇商铺门口。
当运煤重卡告别传统燃油，改用电力出行。
当中石化的站点悄然增设充电设施，我们看到的不只是汽车动力形式的变化。
更是国内能源使用模式与产业生态的积极转变。
山西这片土地曾长期是传统燃油重卡的主要运行区域，运煤车辆在道路上往来穿梭。
柴油车辆的行驶痕迹与煤尘相伴。
较高的燃油消耗既增加了货车司机的运营成本，也给环境带来了一定负担。
那时的货运重卡高度依赖燃油，成本压力始终是从业者的心头事。
而电力的接入，让这一切有了全新改变。
电动重卡百公里电耗相对可控。
按日常电价计算，每公里能源成本远低于柴油车。
没有发动机、变速箱等复杂部件的频繁保养，维保成本大幅降低。
更便捷的是车电分离的模式，让司机无需承担高额电池购置费用，只需支付合理租金，就能大幅减轻运营压力。
对以运煤为生的司机来说。
每一公里省下的成本，都是实实在在的收入提升。
对山西这个以煤炭为重要产业的省份而言，从直接燃煤燃油到煤炭转化为清洁电力。
是让传统能源实现更高效环保利用，让曾经的能源输出地走上绿色循环的发展新路。
小镇里的私人充电桩，是这场能源变革最贴近生活的体现。
在海外一些小城，汽车普及依托的是成熟的石油供应体系。
而在中国的内陆小镇，尤其是山西这样的地区，汽车普及的背后。
是电力能源网络的全面覆盖。
临街店铺门口的充电桩并非统一规划的大型设施，而是普通民众顺应时代的自主选择。
店主在自家门口装桩，既方便自己用车，也能为过往车辆提供充电便利。
居民不用专程跑远补能，在家门口就能完成充电，这份便捷是传统燃油车难以比拟的。
当一辆辆电动车有序停靠充电，充电枪连接的不只是车辆电池。
更是小镇居民紧跟时代的生活选择。
这里没有过度依赖石油能源的模式，却以更灵活、更接地气的方式实现了汽车的广泛普及。
也完成了日常能源使用习惯的平稳转变。
更值得关注的是传统能源企业的积极转型。
中石化的加油站曾是燃油时代极具代表性的设施。
深埋地下的储油设备、完善的油品储运系统、严格的安全防护流程。
一座加油站从选址到建成需要耗费大量时间与资金。
还要落实层层安全管控，是支撑燃油出行的重要枢纽。
而如今，在同样的场地内，只需一个集装箱式的箱式变压器，搭配数台充电桩。
就能快速打造出石化易电充电站点。
这个看似普通的箱体集成了变电、配电等核心功能，直接接入电网即可转化为适配车辆的快充电源。
整个部署周期短，施工简便，无需复杂的储油、油气处理流程，安全管理也更简便高效。
这种从供油到供电的拓展。
不只是设备的简单替换，更是能源基础设施建设逻辑的升级。
传统燃油设施笨重，建设周期长，而电力充电设施模块化。
易复制，部署快。
中石化依托多年搭建的站点网络，快速改造升级为充电服务网点。
这样的转型速度在传统燃油时代很难实现。
这场能源与出行的变革并非单纯的政策推动，更多是源于市场与民众的实际需求。
对运煤司机而言，选择电动重卡不是单纯的环保理念。
而是看得见算得清的成本账。
传统柴油重卡每年油费、维保、尿素费用高昂，是一笔不小的开支。
而电动重卡，即便按常规充电价格计算，每年能源与维保成本大幅降低，一年省下的费用十分可观。
这种实打实的成本优势在高频运营的货运场景中格外突出。
也让司机们主动选择电动重卡。
对小镇居民来说，选择电动车核心也是使用成本的差异，每公里极低的电费，日积月累下。
远低于燃油开销。
而家门口的私人充电桩、企业改造的充电站点，彻底解决了补能难题，让电动车不再是大城市的专属。
成为小镇居民的日常代步首选。
尤为巧妙的是，山西这个煤炭资源丰富的省份，正形成一套完整的能源循环体系。
本地产出的煤炭转化为清洁电力，通过电网输送到各个充电站点，既驱动着运煤电动重卡，也为小镇家用电动车提供动力。
曾经的煤炭产业链，从开采、运输、直接燃烧，转变为开采、发电、高效用电、污染集中处理、清洁动力，汇集千家万户。
这不是简单的能源替换。
而是能源利用方式的优化，让传统煤炭资源以更绿色高效的形态支撑着区域发展。
漫步在山西小镇。
看着满街的电动车，带密码锁的充电桩，看着电动重卡平稳驶过，看着传统加油站升级为充电站点，我们看到的不只是汽车的高度普及。
更是一条独具特色的新能源发展路径。
海外小城的汽车文明依托传统石油产业体系，而中国小镇的汽车普及依托的是全覆盖的电力网络。
快速崛起的新能源产业，以及普通民众对美好生活的务实追求。
这条路径没有照搬现有模式，却以更贴近民生、更具韧性的方式。
实现了能源体系的绿色升级。
未来，随着充电桩布局越来越完善，电动重卡越来越普及，传统能源站点的转型越来越深入。
我们回望如今的山西，会发现这里发生的不只是一场能源领域的变革，更是一场关乎普通人生活的美好转变。
那些带密码锁的充电桩、平稳行驶的电动重卡。
简洁高效的箱式变压器，都是这场变革最生动的印记，也是中国汽车文明与能源转型的真实见证。

英文翻译

Following the current, witnessing the leap of China's automotive civilization in a small Shanxi town.

Walking through the streets and alleys of Shanxi, one can easily be moved by two sights at the same time. One is the charging piles随处可见 at street corners and alleys.

With password locks, these piles stand quietly at the entrances of shops lining the streets, like a fine mesh, subtly changing the pace of life in the small town.

The other is the constant flow of vehicles on the roads.

From family commuter cars to heavy coal-hauling trucks, wheels rolling through the streets and alleys reveal a more vibrant picture of automobile普及 than in small overseas towns.

And when a white electric heavy truck with an EV logo slowly passes by,

the battery box behind the cab is particularly conspicuous.

Then, looking at the Sinopec station, beside the original fuel dispensers stand Sinopec E-Power charging piles, and beside them, a square box-type transformer operates silently.

At that moment, various scenes concerning energy, life, and the development of the era instantly pieced together into a complete picture.

This is not a random scene. When private charging piles with password locks appear at the entrances of small-town shops,

when coal-hauling heavy trucks say goodbye to traditional fuel and switch to electric power,

when Sinopec stations quietly add charging facilities, what we see is not just a change in the form of automotive power.

It is a positive transformation in China's energy usage model and industrial ecosystem.

Shanxi, this land, was long a main operational area for traditional fuel-powered heavy trucks, with coal-hauling vehicles shuttling back and forth on the roads.

The tracks of diesel vehicles accompanied by coal dust.

High fuel consumption not only increased the operating costs of truck drivers but also placed a certain burden on the environment.

Back then, freight heavy trucks were highly dependent on fuel, and cost pressure was always a concern for practitioners.

The introduction of electricity has brought a completely new change to all this.

The electricity consumption per 100 kilometers of electric heavy trucks is relatively controllable.

Calculated based on daily electricity prices, the energy cost per kilometer is far lower than that of diesel vehicles.

Without the need for frequent maintenance of complex parts like engines and gearboxes, maintenance costs are significantly reduced.

More convenient is the vehicle-battery separation model, which allows drivers to avoid the high cost of purchasing batteries. They only need to pay a reasonable rental fee, greatly alleviating operational pressure.

For drivers who make a living by transporting coal,

every kilometer of cost saved is a real increase in income.

For Shanxi, a province where coal is an important industry, shifting from direct coal combustion and fuel oil to converting coal into clean electricity

is a way to achieve more efficient and environmentally friendly use of traditional energy, allowing this former energy exporter to embark on a new path of green development.

The private charging piles in the small town are the most down-to-earth reflection of this energy revolution.

In some small overseas cities, automobile普及 relies on a mature petroleum supply system.

In China's inland small towns, especially in regions like Shanxi, the background of automobile普及

is the comprehensive coverage of the electric power grid.

The charging piles at the entrances of street-side shops are not large-scale facilities under unified planning, but自主 choices made by ordinary people adapting to the times.

Shop owners install piles at their doorsteps, convenient both for their own use and to provide charging convenience for passing vehicles.

Residents don't need to go far to recharge; they can do it right at their doorstep. This convenience is hard for traditional fuel vehicles to match.

When electric vehicles park orderly to charge, the charging gun connects not just to the vehicle's battery,

but also to the life choices of small-town residents keeping up with the times.

Here, there is no model of over-reliance on petroleum energy, yet a wide普及 of automobiles has been achieved in a more flexible and grounded way.

A smooth transition in daily energy usage habits has also been accomplished.

Even more noteworthy is the active transformation of traditional energy companies.

Sinopec's gas stations were once highly representative facilities of the fuel era.

Underground fuel storage equipment,完善的 fuel storage and transportation systems, strict safety protection procedures.

From site selection to completion, building a gas station requires a huge amount of time and capital.

It also requires implementing layers of safety controls, serving as an important hub supporting fuel-powered transportation.

Today, on the same site, only a container-style box-type transformer, paired with several charging piles,

is needed to quickly set up a Sinopec E-Power charging station.

This seemingly ordinary box integrates core functions like transformation and distribution, directly connecting to the power grid to convert it into fast-charging power suitable for vehicles.

The entire deployment cycle is short, construction is simple, without the need for complex fuel storage, oil and gas handling processes, and safety management is also simpler and more efficient.

This expansion from fuel supply to power supply

is not just a simple replacement of equipment, but an upgrade in the logic of energy infrastructure construction.

Traditional fuel facilities are bulky with long construction periods, while electric charging facilities are modular,

easy to replicate, and quick to deploy.

Leveraging its years of established station network, Sinopec is quickly transforming and upgrading its sites into charging service outlets.

Such a pace of transformation would have been difficult to achieve in the traditional fuel era.

This change in energy and transportation is not solely driven by policy; it stems more from the actual demands of the market and the public.

For coal-hauling drivers, choosing electric heavy trucks is not purely an environmental concept.

It is a clear, calculable cost account.

Traditional diesel heavy trucks incur high annual costs for fuel, maintenance, and urea, a significant expense.

For electric heavy trucks, even calculated at regular charging prices, annual energy and maintenance costs are greatly reduced, leading to considerable savings each year.

This tangible cost advantage is particularly prominent in high-frequency freight scenarios.

It also leads drivers to actively choose electric heavy trucks.

For small-town residents, the core reason for choosing electric vehicles is also the difference in usage costs. The extremely low electricity cost per kilometer, accumulated over time,

is far lower than fuel expenses.

And the private charging piles at their doorsteps, along with charging stations transformed by companies, have completely solved the recharging problem, making electric vehicles no longer exclusive to big cities,

but the preferred daily commute choice for small-town residents.

Particularly cleverly, Shanxi, a province rich in coal resources, is forming a complete energy cycle system.

Locally produced coal is converted into clean electricity, transmitted through the grid to various charging stations, powering both electric coal-hauling heavy trucks and household electric vehicles in the small town.

The former coal industry chain—from mining, transportation, and direct combustion—has transformed into mining, power generation, efficient electricity use, centralized pollution treatment, and clean power, converging on thousands of households.

This is not a simple energy substitution.

It is an optimization of energy utilization, allowing traditional coal resources to support regional development in a greener and more efficient form.

Strolling through the small towns of Shanxi,

looking at the streets full of electric vehicles, charging piles with password locks, watching electric heavy trucks pass smoothly, seeing traditional gas stations upgraded to charging stations, what we witness is not just a high degree of automobile普及.

It is a unique path of new energy development.

The automotive civilization in small overseas cities relies on the traditional petroleum industry system, while the automobile普及 in China's small towns relies on a comprehensive power grid,

a rapidly rising new energy industry,

and the pragmatic pursuit of a better life by ordinary people.

This path does not copy existing models, but in a way closer to people's livelihoods and more resilient,

it achieves a green upgrade of the energy system.

In the future, as the layout of charging piles becomes more and more完善的, electric heavy trucks become more and more popular, and the transformation of traditional energy stations becomes deeper and deeper,

when we look back at present-day Shanxi, we will realize that what has happened here is not just an energy revolution, but a beautiful transformation concerning the lives of ordinary people.

Those charging piles with password locks, the smoothly running electric heavy trucks,

the simple and efficient box-type transformers—they are all the most vivid imprints of this change, and the true testimony to China's automotive civilization and energy transition.