中国能源研究会品牌分会 指导Guided by ICC China
公 告NOTICE更多 ›More ›
首页Home>资讯详情Item Detail>5177万千瓦与18万吨副产氢:哈密给氢能产业找了一张“入场券”

5177万千瓦与18万吨副产氢:哈密给氢能产业找了一张“入场券”51.77 million kilowatts and 180,000 tons of by-product hydrogen: Hami has found a 'ticket' for the hydrogen energy industry

资讯详情Item Detail绿氢与氢基燃料 | 2026-10-08
信息来源:Source:中国能源产业发展网China Energy Industry Development Network
5177万千瓦与18万吨副产氢:哈密给氢能产业找了一张“入场券”

明慧

要理解哈密的能源转型,可以先看一组装机数据。据哈密市发展改革委党组副书记、主任张晓毅介绍,目前哈密电力总装机规模达5177万千瓦,其中新能源装机3856万千瓦,占比74.5%。当地已建成千万千瓦级风电基地、百万千瓦级光伏发电基地,是“疆电外送”的重要枢纽,也是全国规模最大的风光火电打捆外送基地。“十五五”末,全市电力总装机规模预计将突破9000万千瓦。

但哈密真正稀缺的地方,不在于风光装机的绝对规模,而在于它同时握有两样别处难以凑齐的资源:足够便宜的氢,和足够多的用车需求。这两样东西凑在一起,氢能产业就不用从零开始培育市场。

便宜来自煤化工。当地煤化工企业通过荒煤气提纯技术,每年可从工业副产中提纯氢气超18万吨,成本较电解水制氢显著降低。在伊吾工业园区淖毛湖煤化工循环经济产业区,氢气提纯装置昼夜运行;宣力(新疆)氢能科技有限公司的纯氢工厂加氢站前,满载煤炭的氢能重卡加注之后,驶上淖毛湖至柳沟的公路。司机的一句评价流传甚广:跑一趟柳沟往返几百公里,加一次氢燃料就够用。

需求来自“疆煤外运”这张王牌。作为疆煤外运的主战场,哈密2025年煤炭公路运输量预计超4700万吨,日活跃重卡约5万辆。高频次、大载重、固定线路的运输场景,与氢能重卡长续航、高运力、零排放的优势高度契合;矿区转运、园区通勤、跨省干线三类需求叠加,构成了国内稀缺的规模化应用场景。

落地速度可以从几个数字看清:哈密已被确定为首批自治区氢能产业示范区,全球单日加氢量最大的加氢站建成投运,已投运氢燃料重卡569辆、氢燃料公交车7辆;在无政府补贴的情况下,氢气加注价格达到20元每公斤,成为西北地区氢能产业的核心枢纽。对氢能交通而言,“不靠补贴就能跑起来”,比任何规划文本都更有说服力。

资源的第二层是绿电。2026年,哈密谋划天山北麓千万千瓦级“沙戈荒”基地,加快国能项目建设,力争年内新能源装机达4500万千瓦;同时全力保障哈郑、坤渝直流稳定运行,推进十三间房等变电站及储能项目并网,目标是实现发电量超900亿千瓦时、外送电量840亿千瓦时以上,并积极论证第三条“疆电外送”通道。

光热是哈密另一张不太常被提起的牌。位于伊吾县淖毛湖镇的中国能建哈密熔盐塔式5万千瓦光热发电站,是新疆首个光热发电示范项目。对于“风光火电打捆外送”的基地而言,光热的价值不在发电量,而在可调节的出力曲线——它可以在光伏出力下降的傍晚继续供电,让整条外送通道的电量更平稳、品质更高。

煤炭产业本身也在提速。2026年当地的目标是全年产煤1.6亿吨、外运超6000万吨,条湖一号、纸房一号等煤矿建设加快,岔哈泉矿区全面推进。煤炭与新能源同时扩张,看上去矛盾,实则是哈密当下的真实状态:煤炭提供现金流与外运燃料,新能源与氢能负责未来的产业结构。

风险也在明处。其一,副产氢路线高度依赖煤化工的开工率与规模,煤化工景气度波动会直接传导到氢价,氢源稳定性并非完全由氢能产业自身决定;其二,绿氢成本仍高于副产氢,“绿氢替代灰氢”在哈密的经济性还需要时间验证;其三,569辆氢能重卡的保有量,相对于日均约5万辆的活跃重卡,仍是很小的比例,规模化还要跨过加氢网络密度与车辆购置成本两道门槛。

从产业逻辑看,哈密找到的是一条循序渐进的路径:先用成本最低的煤化工副产氢切入加氢站与重卡运营,把下游应用跑通;再用风光资源制绿氢,逐步替换碳源;最后把氢、氨、醇做成可以外送的产品。当地“十五五”的目标正是围绕这条路径展开——打造西部最大的氢氨醇生产基地、西氢东送的重要基地和氢能装备制造基地。

把煤炭与新能源放在同一张图上看,哈密的结构特征会更清楚。作为亿吨级煤炭生产基地,煤炭在当地经济中承担着现金流与就业的支柱作用,同时又是“疆煤外运”的燃料来源;而新能源与氢能则被定位为未来的产业方向。两者并行不是过渡状态下的妥协,而是资源型城市转型的一般路径——用仍然赚钱的传统产业,为尚未完全盈利的新产业提供资金与场景支持。真正需要警惕的,是把传统产业的现金流长期消耗在缺乏竞争力的新项目上。

算力与氢能被哈密并列为新质生产力的两个方向,二者之间其实存在协同。大规模算力设施是用电大户,对稳定、低价的电力供应有强烈需求;而哈密绿电资源充沛、电价具备优势,本地化消纳可以降低输电损耗与外送压力。当绿电直接为算力中心供电时,发电侧的富余电量找到了出口,用电侧获得了成本与绿色属性的双重优势。这条路径与国内其他新能源富集地区正在探索的“绿电+算力”模式方向一致,考验的是项目落地的速度与配套能力。

资源约束是哈密必须面对的边界条件。地处干旱区,水资源总量有限,而煤化工、制氢与算力设施都有相当的水耗需求;同时,风光装机的快速增长对电网调节能力提出了更高要求,外送通道的容量决定了绿电能否充分外送。此外,氢能重卡的规模化还依赖加氢站的密度与车辆购置成本,在保有量达到一定规模之前,加氢网络的运维成本难以通过规模效应摊薄。这些约束不会因为政策推动而自动消失。

对关注哈密的人来说,值得跟踪的指标可以更具体一些:新能源装机在总装机中的占比变化、外送电量与发电量的比例关系、加氢站的日加注量与氢能重卡保有量的增长速度、绿氢项目在副产氢与电解水之间的结构变化,以及算力设施的实际上架率。这些数据会清楚地显示,资源型城市的转型是走在轨道上,还是停留在规划里。哈密当前的优势是场景真实、需求确定,接下来要证明的是成本能否持续下降。

观察哈密,与其看它建了多少风光项目,不如跟踪两个更实在的数字:加氢站的日加注量,以及氢能重卡的保有量。前者决定氢能是否被市场真正接受,后者决定这条路能不能形成规模。这两条曲线的斜率,才是资源型城市转型最真实的进度条。

【研究支持机构:《中国工业报社》能源与双碳研究中心 |中国能源产业发展网】

Minghui

To understand Hami's energy transition, one can first look at a set of installed capacity data. According to Zhang Xiaoyi, Deputy Secretary of the Party Leadership Group and Director of the Hami City Development and Reform Commission, the total installed power capacity in Hami currently reaches 51.77 million kilowatts, of which 38.56 million kilowatts are from renewable energy sources, accounting for 74.5%. The city has already built a wind power base with tens of millions of kilowatts and a photovoltaic power base with millions of kilowatts. Hami is an important hub for transmitting Xinjiang electricity to other regions and also the largest combined wind, solar, and thermal power transmission base in the country. By the end of the 15th Five-Year Plan, the total installed power capacity in the city is expected to exceed 90 million kilowatts.

However, what Hami truly lacks is not the absolute scale of wind and solar installations, but that it simultaneously possesses two resources that are difficult to gather elsewhere: sufficiently cheap hydrogen and ample vehicle demand. When these two elements come together, the hydrogen energy industry does not have to start from scratch to cultivate a market.

Cheap hydrogen comes from coal chemical industry. Local coal chemical enterprises can purify over 180,000 tons of hydrogen annually from industrial by-products using waste gas purification technology, significantly reducing costs compared to hydrogen production by water electrolysis. In the Naomao Lake Coal Chemical Circular Economy Industrial Zone in Yiwu Industrial Park, hydrogen purification units operate around the clock; in front of Xuanli (Xinjiang) Hydrogen Energy Technology Co., Ltd.'s pure hydrogen factory refueling station, fully loaded coal hydrogen energy heavy trucks refuel and then drive on the road from Naomao Lake to Liugou. A widely circulated comment from a driver goes: "A round trip to Liugou is a few hundred kilometers, and one refueling of hydrogen is enough."

The demand comes from the trump card of "transporting Xinjiang coal outward." As the main battlefield for transporting Xinjiang coal outward, Hami's coal road transport volume is expected to exceed 47 million tons by 2025, with about 50,000 active heavy trucks daily. High-frequency, heavy-load, fixed-route transport scenarios align well with the advantages of hydrogen heavy trucks in long range, high transport capacity, and zero emissions; the overlap of three types of demand—mine site transfer, industrial park commuting, and inter-provincial mainline transport—creates a rare large-scale application scenario domestically.

The landing speed can be seen from several numbers: Hami has been identified as the first batch of autonomous region hydrogen energy industry demonstration zones, the world's largest single-day hydrogen refueling station has been built and put into operation, 569 hydrogen fuel heavy trucks and 7 hydrogen fuel buses are in operation; without government subsidies, the hydrogen refueling price reaches 20 yuan per kilogram, making it the core hub of the hydrogen energy industry in Northwest China. For hydrogen-powered transportation, “running without relying on subsidies” is more convincing than any planning document.

The second layer of resources is green electricity. By 2026, Hami plans a tens-of-millions-of-kilowatts-level “Shago荒” base on the northern slopes of the Tianshan Mountains, accelerates the construction of Guoneng projects, and strives to achieve a renewable energy installed capacity of 45 million kilowatts within the year; at the same time, it fully ensures the stable operation of direct current lines between Hami-Zhengzhou and Kunming-Chongqing, advances the grid connection of substations such as Shisan Jianfang and energy storage projects, aiming to achieve a power generation of over 90 billion kilowatt-hours, cross-regional electricity transmission of over 84 billion kilowatt-hours, and actively studies a third “Xinjiang electricity export” channel.

Solar thermal power is another card that Hami doesn’t often mention. Located in Naomao Lake Town, Yiwu County, the China Energy Engineering Hami 50,000-kilowatt molten salt tower solar thermal power station is Xinjiang's first solar thermal power demonstration project. For a base that sends out power in bundled form from wind, solar, and thermal, the value of solar thermal power is not in the electricity output, but in its adjustable power curve—it can continue to supply electricity in the evening when photovoltaic output declines, making the overall sent-out power smoother and of higher quality.

The coal industry itself is also accelerating. The local target for 2026 is an annual coal production of 160 million tons and over 60 million tons for external transport, with accelerated construction of mines such as Tiao Lake No. 1 and Zhifang No. 1, and comprehensive advancement in the Chahaquan mining area. The simultaneous expansion of coal and renewable energy may seem contradictory, but it reflects the current reality in Hami: coal provides cash flow and fuel for external transport, while renewable energy and hydrogen energy are responsible for the future industrial structure.

The risks are also evident. First, the by-product hydrogen route is highly dependent on the operating rate and scale of coal chemical plants, and fluctuations in the coal chemical industry's prosperity will directly transmit to hydrogen prices, meaning that the stability of the hydrogen supply is not entirely determined by the hydrogen energy industry itself; second, the cost of green hydrogen is still higher than that of by-product hydrogen, and the economic feasibility of "green hydrogen replacing grey hydrogen" in Hami still needs to be time-tested; third, the fleet of 569 hydrogen heavy trucks is still a very small proportion relative to the approximately 50,000 active heavy trucks per day, and scaling up has to overcome two thresholds: the density of the hydrogen refueling network and the cost of vehicle procurement.

From an industrial logic perspective, Hami has found a gradual path: first, use the lowest-cost by-product hydrogen from coal chemical plants to enter hydrogen stations and heavy truck operations, enabling downstream applications; then use wind and solar resources to produce green hydrogen to gradually replace carbon-based sources; and finally, produce hydrogen, ammonia, and alcohol products that can be transported externally. The local 15th Five-Year Plan goal revolves around this path—building the largest hydrogen-ammonia-alcohol production base in the western region, an important base for transporting western hydrogen to the east, and a hydrogen energy equipment manufacturing base.

Looking at coal and renewable energy on the same chart makes Hami's structural characteristics clearer. As a coal production base at the scale of hundreds of millions of tons, coal plays a pillar role in the local economy in terms of cash flow and employment, while also serving as the fuel source for 'Xinjiang coal export'; renewable energy and hydrogen energy, on the other hand, are positioned as future industrial directions. The coexistence of both is not a compromise during a transitional period, but rather a typical path for resource-based cities to transform—using profitable traditional industries to provide funding and scenario support for new industries that are not yet fully profitable. What really needs to be guarded against is the long-term consumption of traditional industry cash flow on new projects that lack competitiveness.

Computing power and hydrogen energy are both listed alongside Hami as two directions of new productive forces, and there is actually synergy between the two. Large-scale computing facilities are major electricity consumers and have a strong demand for stable and low-cost power supply; meanwhile, Hami has abundant green electricity resources and advantageous electricity prices, and local consumption can reduce transmission losses and the pressure of sending power elsewhere. When green electricity directly powers computing centers, the surplus electricity from the generation side finds an outlet, while the users benefit from both cost advantages and green attributes. This path is consistent with the 'green electricity + computing power' model being explored in other domestic regions rich in renewable energy, and what matters is the speed of project implementation and supporting capabilities.

Resource constraints are boundary conditions that Hami must face. Located in an arid region, the total water resources are limited, while coal chemical, hydrogen production, and computing facilities all require considerable water consumption; at the same time, the rapid growth of wind and solar installations places higher demands on the grid's regulation capability, and the capacity of transmission channels determines whether green electricity can be sufficiently transmitted. In addition, the large-scale deployment of hydrogen-powered heavy trucks also depends on the density of hydrogen refueling stations and the cost of vehicle acquisition. Before the number of vehicles reaches a certain scale, the operating costs of the hydrogen network are difficult to dilute through economies of scale. These constraints will not automatically disappear due to policy promotion.

For those paying attention to Hami, the indicators worth tracking can be more specific: changes in the proportion of renewable energy installations in the total installed capacity, the relationship between electricity sent out and electricity generated, the daily refueling volume at hydrogen stations and the growth rate of hydrogen-powered heavy trucks, the structural changes between by-product hydrogen and water electrolysis in green hydrogen projects, and the actual deployment rate of computing facilities. These data will clearly show whether the transformation of a resource-based city is on track or still stuck in planning. Hami's current advantage lies in having real scenarios and defined demand; what needs to be proven next is whether costs can continue to decline.

When observing Hami, rather than focusing on how many wind and solar projects it has built, it is better to track two more tangible numbers: the daily refueling volume at hydrogen stations and the stock of hydrogen-powered heavy trucks. The former determines whether hydrogen energy is truly accepted by the market, while the latter determines whether this pathway can scale. The slopes of these two curves are the most genuine progress bars for the transformation of a resource-based city.

Source: Toutiao, Phoenix Net, Hami City Media Center, and publicly available industry data

[Research Supporting Organization: 'China Industrial News' Energy and Dual-Carbon Research Center | China Energy Industry Development Network]

版权声明Copyright Notice

本网站摘录或转载的属于第三方的信息,目的在于传递更多信息,内容仅供参考。相关股票、投融资等资讯及分析并不代表本网站赞同其意见和对其真实性负责,不构成投资建议。

若不慎涉及侵权,请在相关内容刊发之日起 30 日内联系我们,我们将第一时间进行删除处理。

转载本网资讯请注明来源作者。本网原创文章、研究报告禁止转发。

Information excerpted or reprinted from third parties on this website is intended to convey more information for reference only. Related stocks, investment and financing news and analysis do not represent the endorsement of this website, nor does this website assume responsibility for their authenticity, and do not constitute investment advice.

If any content unintentionally infringes upon rights, please contact us within 30 days from the date of publication, and we will remove it as soon as possible.

When reprinting content from this website, please indicate the source and author. Original articles and research reports of this website may not be redistributed.

联系电话 / Tel010-85763416邮箱 / EmailEmail / Emaillsrlcyl_2026@163.com
提交留言留下联系方式,平台将把您的需求推送给匹配的产业方Leave your contact details and we will match you with relevant industry partners.
数据来源与免责声明Data Sources & Disclaimer

数据来源与口径说明:本平台数据与资讯均以「唯一官方口径」采集与发布,优先采用国家部委、国家统计局、海关总署、中国氢能联盟、IEA / IRENA / IMO 等官方或政府间机构公开数据;同一指标只取一个来源,不做多源拼接。数值为公开发布值,可能因统计口径、产地与发布时间不同而存在差异,仅供参考,不构成交易依据。Data sources and methodology: all data and news on this platform are collected and published from a single official source, giving priority to public data from government bodies and intergovernmental organisations such as the National Bureau of Statistics, the General Administration of Customs, the China Hydrogen Alliance, and IEA / IRENA / IMO. One indicator has one source only and is never stitched together from multiple sources. Figures are published values and may vary with statistical scope, origin and release date. For reference only; not a basis for transactions.

AI
智能客服Smart Assistant绿色燃料国际商务网 · 在线服务Green Fuel International Business Network · Online Service
×
人工服务:工作日 09:00—18:00 | 联系电话 010-85763416Human service: Weekdays 09:00—18:00 | Tel 010-85763416
智能客服Smart Assistant