马年春节，位于北极圈内的挪威罗弗敦群岛比想象中更热闹。斯沃尔维尔的超市里，不少中国游客在扫货；雷纳小木屋附近，随处是带着手提灯拍照的中国 游客；一个有着283人的挪威春节自驾交流群里，消息实时在刷新。 新京报贝壳财经记者从挪威北部城市纳尔维克的火车站出发，租了MG名爵新能源车至罗弗敦群岛的最南端A镇，5天4晚往返里程1314公里。 寻找充电站的"里程焦虑"，车辆一不留神陷入积雪......北极圈里这一路遇到不少出行难题，也感受到中国游客在遥远国度的互相帮协。微信群里有人问路 况，有人报平安，有人提醒避开事故车。出门在外，有中国人的地方就有春节。 数量少、间隔远，北极圈内充电难 租赁一辆新能源车旅行，在当地是最便宜的。自驾首日13点30分出发，当天预计驾驶237公里。此时气温是-5℃，车启动时电量98%，可开了100公里，电量 就下降到50%。 挪威北极圈内的充电桩数量少、间隔远。出发前，新京报贝壳财经记者下载了Bilkraft、Mer connect、Elton这3个充电桩软件。以Elton软件为例，整个罗弗敦 群岛只有不到50处充电站，城际充电站几乎都间隔10公里-30公里，每个充电站也就3-8个充电桩。 ...

□ 本报记者黄伟 假期旅途，"里程焦虑"曾是不少新能源汽车车主头疼的事。许多新能源汽车车主不敢轻易跑远路，怕在 高速公路服务区充电排长队，更怕汽车半路没电"趴窝"。 "里程焦虑"逐步缓解，越来越多人选择驾驶新能源汽车长途旅行。目前，我省高速公路服务区共设充电 站203座，配备固定充电枪3751把、移动充电枪437把，同比提升130%。通过导航平台、服务区电子屏 实时推送充电桩使用情况，哪里有充电桩、充电类型是什么、数量多少、使用状态如何等信息一应俱 全，引导车辆错峰充电。记者看到，服务区还设置了"倡导充电车辆短时多充提示牌"，引导新能源汽车 充电高峰短时补电、随充随走，减少排队。 如今，这样的顾虑正在悄然被打破。以京沪高速公路沭阳服务区为例，依托"四改八"拓宽工程，沭阳服 务区就近异地新建，两侧服务区共设置76把充电枪、4个移动充电车。一排排充电桩前，新能源汽车正 在接受"补给"。"新增加的充电枪去年11月投运，今年春节假期首次迎接大流量考验。"沭阳服务区主任 孙飞跃介绍，以前节假日需要排队半小时以上才能充上电，高峰时段甚至要引导车辆到就近的收费站充 电，现在基本上随到随充。 舒心出行，安全更为重要。"所有充 ...

2026年的新春伊始，新能源轻卡市场便投下了一枚"重磅炸弹"。宁德时代发布了号称"轻商行业单 包最大电量"的253kWh电池，宣称能够实现800公里实况续航 。这一数字，甚至超过了不少家用电动汽 车的续航水平，直逼燃油轻卡一箱油的行驶里程。面对这一技术突破，行业内外却传来了截然不同的声 音。在城配物流这一新能源轻卡的主战场，电池真的是越大越好吗？800公里的续航，究竟是破解行业 焦虑的"解药"，还是脱离实际运营场景的"毒药"？ 01 电池真的是越大越好吗？ 在河南郑州做食品配送的李师傅，是新能源轻卡向"大电量"进军的早期受益者。去年，他果断换掉 了一辆二手98度电轻卡，购入了一台141度电的新能源轻卡。 03 大电量≠长续航？ "之前那台车，说是98度电，跑洛阳到郑州的单程心里都打鼓，得找地方补电。"李师傅回忆起初入 电车时的"里程焦虑"仍心有余悸。换了新车后，他的运营节奏彻底变了，"一天跑下来接近400公里，现 在一天一充，晚上回家充电，白天再也不用到处找充电桩了。" 李师傅的案例似乎证明了大电量的立竿见影。但当被问及是否会考虑搭载253度电、续航800公里的 轻卡时，李师傅却给记者算了一笔精细账："我每天 ...

Group 1 - The article discusses the challenges of driving electric vehicles during rainy and snowy weather, particularly focusing on issues like range anxiety and slippery road conditions [1] - It emphasizes the importance of being cautious while driving in adverse weather conditions, highlighting specific driving tips for electric vehicle users [1] - The article suggests that drivers should be aware of their vehicle's range and plan their trips accordingly to avoid running out of battery power [1]

Core Viewpoint - "Range anxiety" is a core pain point in the development of electric vehicles, and all-solid-state batteries are seen as a potential solution to this issue [1] Group 1: Differences from Lithium-ion Batteries - The main difference between all-solid-state batteries and traditional lithium-ion batteries is the replacement of the electrolyte and optimization of the electrode materials [2] - All-solid-state batteries use non-flammable solid electrolytes instead of liquid organic electrolytes, which enhances safety and energy density [2] Group 2: Enhancing Electric Vehicle Range - The low energy density of current lithium-ion batteries is the fundamental reason for range anxiety in the electric vehicle industry [3] - All-solid-state batteries can utilize higher theoretical capacity electrode materials, leading to a significant increase in energy density and potentially allowing electric vehicles to achieve a range of over 1000 kilometers [3] Group 3: Challenges to Large-scale Application - The research and development of all-solid-state batteries are still in the early stages, facing several key technical challenges for large-scale application [4] - High-performance solid electrolytes and the cost of raw materials pose significant challenges, requiring breakthroughs in low-cost synthesis and preparation technologies [5] - The stability of the solid-solid interface in all-solid-state batteries is a major challenge due to volume changes during charge and discharge cycles, necessitating in-depth research on the electrochemical and mechanical properties of solid electrolytes [5]

Core Insights - "Range anxiety" is a critical pain point for the development of electric vehicles, and all-solid-state batteries are seen as a potential solution to this issue [1] Group 1: Differences Between All-Solid-State Batteries and Lithium-Ion Batteries - The main difference between all-solid-state batteries and traditional lithium-ion batteries is the replacement of the electrolyte and the optimization of electrode materials [2] - All-solid-state batteries utilize non-flammable solid electrolytes instead of liquid organic electrolytes, which enhances safety and allows for higher capacity electrode materials [2] - The structure of traditional lithium-ion batteries includes graphite anodes and lithium iron phosphate or ternary cathodes, while all-solid-state batteries use solid electrolyte membranes for lithium ion transport [2] Group 2: Enhancing Electric Vehicle Range - "Range anxiety" stems from the low energy density of current lithium-ion batteries, which limits the amount of energy they can store given size and weight constraints [3] - All-solid-state batteries can utilize higher theoretical capacity electrode materials due to the stability and safety of solid electrolytes, potentially leading to a significant increase in energy density [3] - Theoretically, all-solid-state batteries could enable electric vehicles to achieve a range exceeding 1000 kilometers, although challenges in scaling production remain [3] Group 3: Challenges to Large-Scale Adoption - The research and development of all-solid-state batteries are still in the early stages, with significant differences in manufacturing processes compared to lithium-ion batteries [4] - Key challenges include high material and processing costs, as well as the need for specialized equipment and strict environmental controls for the production of solid electrolytes [5] - The stability of the solid-solid interface in all-solid-state batteries poses challenges due to volume changes during charge and discharge cycles, necessitating further research into the electrochemical and mechanical properties of solid electrolytes [6]

Core Insights - "Range anxiety" is a core pain point in the development of electric vehicles, and all-solid-state batteries are seen as a potential solution to this issue [1] Group 1: Differences from Lithium-ion Batteries - The main difference between all-solid-state batteries and traditional lithium-ion batteries is the replacement of the electrolyte and optimization of the electrode materials [2] - All-solid-state batteries utilize non-flammable solid electrolytes instead of liquid organic electrolytes, which enhances safety and energy density [2] - The structure of all-solid-state batteries allows for higher capacity electrode materials, theoretically improving safety and energy density significantly [2] Group 2: Enhancing Electric Vehicle Range - The fundamental issue of range anxiety in the electric vehicle industry is due to the low energy density of current lithium-ion batteries [3] - All-solid-state batteries can utilize higher theoretical capacity electrode materials, leading to a significant increase in energy density [3] - The application of all-solid-state batteries in electric vehicles could potentially allow for ranges exceeding 1000 kilometers, although challenges remain in scaling production [3] Group 3: Challenges to Large-scale Adoption - All-solid-state battery research is still in its early stages, with significant differences in manufacturing processes compared to lithium-ion batteries [4] - Key challenges include high costs of core materials and the need for specialized equipment and environmental controls for production [4] - The stability of the solid-solid interface in all-solid-state batteries poses challenges due to volume changes during charge and discharge cycles, necessitating further research [5]

Core Viewpoint - The comparison between the cost savings of using a hybrid vehicle like the Xiaopeng X9 versus a traditional fuel-powered MPV like the Alphard highlights significant financial benefits for consumers, particularly for those who drive long distances regularly [1] Group 1: Cost Savings Analysis - The Xiaopeng X9 can save approximately 43,000 yuan annually when compared to the Alphard, especially for users driving around 50,000 kilometers per year [1] - Over a three-year period, the savings from using the X9 could amount to enough to purchase an additional vehicle, such as the Mona [1] - The concern of range anxiety is addressed by the hybrid technology of the X9, making it an attractive option for consumers who frequently travel long distances [1]

Core Viewpoint - Citic Securities has released a report stating that Leap Motor (09863) has launched its first flagship full-size hybrid SUV, the D19, which is competitively priced targeting the high-end SUV market priced between 250,000 to 300,000 RMB, with an expected launch in the first half of 2026 [1] Group 1: Product and Market Strategy - Leap Motor continues its high cost-performance strategy with the D19, prioritizing battery capacity over fuel consumption [1] - The entire model lineup utilizes CATL battery cells, dual Qualcomm 8797 chips, and VLA intelligent driving models, aligning with recent policy directions and consumer demands [1] Group 2: Regulatory Environment and Consumer Confidence - Upcoming regulations in 2026 will require plug-in hybrid electric vehicles (PHEVs) to meet stricter engine standards, including the use of higher quality batteries, with an estimated fuel consumption reduction of about 4.1% [1] - The emphasis on improved engine quality by regulatory authorities is expected to enhance the confidence of hesitant car buyers, while PHEVs with longer ranges are anticipated to perform better by minimizing fuel consumption and alleviating range anxiety [1]

Core Viewpoint - The rise of range-extended vehicles (REVs) in the electric vehicle market is notable, as they are increasingly competing with pure electric vehicles by enhancing their battery capacities and electric range [1][4][12]. Group 1: Industry Position - The sales of range-extended vehicles are projected to reach 1.167 million units in 2024, representing a year-on-year growth of 78.7% [4]. - In the first half of this year, sales reached 538,000 units, showing a year-on-year increase of 16.5% [4]. - Predictions suggest that by 2025, sales could reach approximately 2.2 million units, with a long-term potential of 7.5 million units [4][6]. Group 2: Market Dynamics - The current adjustment period for REVs follows a phase of rapid growth, indicating a sustained market interest despite recent sales fluctuations [6][12]. - Over 90% of REV users primarily utilize electric mode for their daily travel, highlighting the importance of electric range in consumer preferences [10]. - The competitive landscape necessitates that REVs enhance their electric range to remain relevant, especially as mainstream electric vehicles achieve ranges of 500-700 km [12]. Group 3: Battery Capacity Competition - The trend of increasing battery capacity among REVs is a response to their evolving market position and the need to maintain competitiveness [8][18]. - The advancements in battery technology, such as higher energy density and lower costs, have made larger batteries more practical and economically viable [13][15]. - The cost implications of larger batteries are significant, as they can lead to higher vehicle prices, which may deter potential buyers [17]. Group 4: Economic Considerations - The operational cost benefits of larger batteries are evident, as they can significantly reduce energy costs compared to traditional fuel [15]. - However, the increased purchase price associated with larger battery models poses a challenge for market acceptance [17]. - Balancing the cost of larger batteries with consumer affordability is crucial for the sustained success of REVs in the market [18].