应用案例
Applications
新能源汽车
New Energy Vehicle
新能源汽车对动力电池的长循环提出了严苛要求。传统硅负极易因体积膨胀导致结构粉化。锂凰科技采用自主研发的树脂基多孔碳骨架结合CVD气相沉积技术，将纳米硅均匀限域在孔隙内部。这种预留缓冲空间的结构设计有效吸收了硅的膨胀应力，大幅提升了电芯的循环稳定性与全生命周期可靠性。
New energy vehicles demand rigorous long-cycle battery life, while traditional silicon anodes are prone to structural pulverization due to volume expansion. Phoelix Tech utilizes a unique resin-based porous carbon framework combined with CVD technology to uniformly confine nano-silicon within its pores. This structural design, featuring pre-allocated buffer space, physically absorbs expansion stress, substantially enhancing cell cycle stability and lifecycle reliability.
高比能动力电池
High-Energy-Density Power Battery
突破传统石墨材料372 mAh/g的理论容量极限，是实现高比能电池的关键。锂凰科技通过精准调控多孔碳的微观孔径与孔隙率，实现了高载量纳米硅的致密镶嵌。该方案不仅大幅提升了材料的克容量，更保障了高能量密度下电极的结构完整性，为长续航及轻量化系统提供了可靠材料支撑。
Breaking through the 372 mAh/g theoretical capacity limit of traditional graphite is critical for high-energy-density batteries. By precisely controlling the microscopic pore size and porosity of the carbon framework, Phoelix Tech achieves the dense intercalation of high-loading nano-silicon. This approach multiplies the specific capacity while ensuring electrode structural integrity under high energy densities, providing direct material support for long-range and lightweight systems.
高功率动力电池
High-Power Battery
极速快充与大倍率放电工况极易导致负极极化与界面析锂。锂凰科技的硅碳材料构筑了三维连续的导电碳网络，并在最外层辅以均匀的固态电解质包覆层。这一复合结构显著降低了界面阻抗，打通了锂离子的快速传输通道。即使在持续高频大电流吞吐下，电芯仍能保持优异的动力学性能与底线安全。
Ultra-fast charging and high-rate discharge conditions easily induce anode polarization and interfacial lithium plating. Phoelix Tech ‘s silicon-carbon material constructs a three-dimensional continuous conductive carbon network, supplemented by a uniform solid-state electrolyte coating layer. This composite structure significantly reduces interfacial impedance and establishes rapid lithium-ion transport channels. Even under continuous high-frequency, large-current throughput, the cell maintains excellent kinetic performance and baseline safety.
全固态动力电池
All-Solid-State Power Battery
全固态电池体系中，电极的体积形变极易导致“固-固界面”接触失效与阻抗增加。锂凰科技采用呼吸式微孔碳拓扑网络与原子级气相原位沉积技术，赋予材料卓越的应力缓冲能力。该设计将硅的体积膨胀精准消纳于内部孔隙，使负极颗粒在循环中保持宏观上的“近零应变”，从而实现硅碳负极与固态电解质长效、紧密的物理贴合，从底层破解界面衰减难题。
In all-solid-state battery systems, electrode volume deformation is highly prone to causing “solid-solid interface” contact failure and impedance surges. Phoelix Tech utilizes a “breathing” microporous carbon topological network combined with atomic-level in-situ vapor deposition technology, endowing the material with exceptional stress-buffering capabilities. This design precisely absorbs silicon’s volume expansion within the internal pores, enabling the anode particles to maintain a macroscopic “near-zero strain” during cycling. This achieves a durable, intimate physical bond between the silicon-carbon anode and the solid electrolyte, fundamentally resolving the challenge of interfacial degradation from the ground up.
智能消费电子
Smart Consumer Electronics
智能消费终端对电池的体积能量密度与电芯厚度形变具有严苛的阈值限制。锂凰科技摒弃传统机械混合工艺，采用分级多孔碳基体与硅纳米集群原位气相沉积（In-situ CVD）耦合技术。该复合构型不仅大幅提升了材料的振实密度，更通过内禀的空间弹性骨架吸收硅合金化过程中的体积应力，实现各向同性膨胀的极致抑制，为下一代高集成度智能设备提供底层电化学架构基础。
Smart consumer terminals impose stringent threshold limits on volumetric energy density and cell thickness deformation. Abandoning traditional mechanical blending processes, Phoelix Tech utilizes a coupling technology of a hierarchical porous carbon matrix with the in-situ chemical vapor deposition (CVD) of silicon nanoclusters. This composite configuration not only significantly increases the absolute tap density of the material but also absorbs volumetric stress during silicon alloying via an intrinsic spatial elastic framework. This achieves extreme suppression of isotropic expansion, providing a foundational electrochemical architecture for next-generation, highly integrated smart devices.
笔记本电脑 / 智能手机
Laptop / Smartphone
新型智能终端对机身厚度与电芯形变极为敏感，硅负极的界面循环稳定性是制约其应用落地的核心痛点。锂凰科技通过定制化的核壳异质界面钝化工程，构建出坚韧且动态稳定的固体电解质界面膜（SEI）。该技术不仅高度适配高压实密度极片，更能有效抑制长周期深度充放电下由嵌锂相变引发的电极厚度膨胀，从根本上消除电池形变对设备内部结构的干涉风险。
Next-generation smart devices are highly sensitive to device thickness and cell deformation, making the interfacial cycling stability of silicon anodes the core pain point restricting their commercial application. Phoelix Tech employs customized core-shell heterogeneous interface passivation engineering to construct a robust and dynamically stable Solid Electrolyte Interphase (SEI) layer. This technology is not only highly compatible with high-compacted-density electrodes but also effectively suppresses electrode thickness swelling induced by lithiation phase transitions during long-term, deep charge-discharge cycles. This fundamentally eliminates the risk of structural interference within the device caused by battery deformation.
可穿戴设备
Wearable Devices
TWS耳机、智能穿戴及AR/VR设备等微型化终端内部的异形微小电芯，对极片的机械柔韧性与空间利用率要求严苛。锂凰科技依托多尺度颗粒级配技术，深度优化材料体系流变学特性，显著拓宽了极片的物理加工边界。这使得极片在应对小曲率弯折与高张力卷绕时，能够有效避免涂层开裂与活性物质脱落。该方案在突破微型电池容量天花板的同时，切实保障了极端苛刻标准下的制程良率。
The irregularly shaped micro-cells within miniaturized terminals, such as TWS earbuds, smart wearables, and AR/VR devices, impose extremely stringent requirements on the mechanical flexibility and absolute spatial utilization of the electrodes. Leveraging Particle Size Distribution Engineering, Phoelix Tech deeply optimizes the rheological properties of the material system, significantly expanding the physical processing limits of the electrodes. This effectively prevents coating cracking and active material delamination during low-radius bending and high-tension winding. The solution breaks through the capacity ceiling of micro-batteries while reliably ensuring high manufacturing yields under the most demanding process standards.
无人机（消费级）
Drone – Consumer Grade
消费级无人机对“极致轻量化”与“瞬时大功率放电”要求严苛。锂凰科技从材料底层出发，成功突破了传统电池固相离子扩散的速度瓶颈。通过在硅碳复合微球内部创新构建“短程离子传输通道”，大幅降低了电荷转移阻抗，不仅让电池系统保持高能量密度，而且具备大电流脉冲响应能力，显著拓宽了飞行器的极限滞空时间与高强度机动边界。
Consumer drones demand both “ultra-lightweight design” and “instantaneous high-power discharge.” Operating at the fundamental material level, Phoenix Tech has successfully shattered the speed barriers of traditional solid-state ion diffusion. By innovatively building “short-range ion transport channels” inside silicon-carbon composite microspheres, we have dramatically lowered charge transfer impedance. This breakthrough not only sustains the battery’s high energy density but also unlocks exceptional high-current pulse response capabilities, significantly pushing the boundaries of the aircraft’s ultimate flight endurance and extreme aerial maneuvers.
轻型动力
Light Electric Vehicles / LEV
针对轻型动力出行领域对宽温域服役与长效循环的综合需求，锂凰科技依托定制化高分子树脂基多孔碳前驱体，通过精准调控多级孔道分布与孔容，构建了具备优异应力缓冲网络的硅碳三维微尺度骨架。该构型不仅有效抑制了充放电过程中的晶格膨胀，更以极高的结构鲁棒性推动了高比能电池在轻型动力领域的规模化装机。
To meet the complex demands for wide-temperature performance and extended cycle life in light electric mobility, Phoelix Tech utilizes customized polymer resin-based porous carbon precursors. By precisely tuning the hierarchical pore distribution and capacity, we have constructed a 3D micro-scale silicon-carbon skeleton featuring an advanced stress-buffering network. This structural design not only effectively mitigates expansion during charging and discharging, but its superior structural robustness also accelerates the large-scale commercial integration of high-energy-density batteries across the light mobility industry.
人形机器人
Humanoid Robot
人形机器人多自由度关节对高频瞬态功率与紧凑系统封装有严格工程要求。锂凰科技采用纳米硅原位限域沉积与自适应界面包裹技术，将系统体积能量密度提升至≥1000Wh/L。该技术方案有效抑制充放电过程中极片厚度的体积膨胀，在满足严苛体积限制的同时，为关节电机高载荷运转提供持续、稳定的高功率能源输出。
Multi-degree-of-freedom joints in humanoid robots impose strict engineering requirements on high-frequency transient power and compact system packaging. Phoelix Tech utilizes in-situ confined deposition of nano-silicon and adaptive interface coating technologies, elevating the system volumetric energy density to ≥ 1000 Wh/L. This technical solution effectively suppresses electrode thickness swelling during charge and discharge cycles. While satisfying stringent volume constraints, it provides a continuous, stable, and high-power energy output for the high-load operation of joint motors.
电动垂直起降飞行器
eVTOL
面向 eVTOL 动力电池在起降阶段的高功率大倍率放电、巡航阶段高比能量以及航空级安全性的综合需求，锂凰科技采用等离子体增强化学气相沉积工艺，在多孔碳基质内实现硅的原子级保形生长。该微观结构设计有效降低了离子传输阻抗，提升了材料的界面稳定性。基于此技术，电池系统在符合航空安全规范的前提下，能稳定兼顾起降期的大功率输出与巡航期的高比能要求，为航空级固态及半固态硅基电池的商业化应用提供技术支撑。
To address the comprehensive demands of eVTOL power batteries for high-power, high-rate discharge during takeoff and landing, high specific energy during cruise, and aviation-grade safety, Phoelix Tech employs the Plasma-Enhanced Chemical Vapor Deposition (PECVD) process to achieve atomic-level conformal growth of silicon within a porous carbon matrix. This microstructural design effectively reduces ion transport impedance and improves the material’s interfacial stability. Based on this technology, the battery system, while complying with aviation safety standards, can consistently balance the high-power output required for takeoff and landing with the high specific energy demanded for cruising, providing technical support for the commercial application of aviation-grade solid-state and semi-solid-state silicon-based batteries.
电动工具
Power Tool
工业级电动工具、户外动力设备及各类高功率无绳装备对高倍率放电与高频次循环有切实工况要求，锂凰科技通过构建三维连通导电碳网络与低曲折度孔道相耦合的微观结构，有效优化了固液界面的 SEI 膜，显著降低了电荷转移内阻。基于此设计，电池系统能稳定输出瞬间峰值扭矩所需的大电流，并维持优异的倍率循环寿命，为复杂场景下的持续高负载作业提供可靠的动力支撑。
Industrial-grade power tools, outdoor power equipment (OPE), and various high-power cordless devices have practical operational demands for high-rate discharge and high-frequency cycling. By engineering a microstructure that couples a 3D interconnected conductive carbon network with low-tortuosity pore channels, Phoelix Tech effectively optimizes the solid-electrolyte interphase (SEI) film and significantly reduces charge transfer resistance. Driven by this design, the battery system stably delivers the high-current output required for instantaneous peak torque and maintains excellent rate cycle life, providing reliable power support for continuous, high-load operations in complex scenarios.
特种应用
Special Applications
面向深空探测、极寒地表及强辐射等极端服役环境，常规电池材料的理化性能往往面临严峻的失效挑战。锂凰科技聚焦于材料物理化学边界的突破，基于结构热力学与多尺度界面工程的底层机理，成功构建兼顾高本征安全与超高比能量的硅碳负极体系。针对不同特种任务的特定工况剖面，提供从微观孔道构型调控到宏观电化学特性适配的链条式定制化开发。该材料体系在抵御极端环境干扰的同时，为前沿特种装备的跨代际性能迭代提供了坚实支撑。
Facing extreme service environments such as deep space exploration, severe cold surfaces, and intense radiation, the physicochemical properties of conventional battery materials often encounter severe failure challenges. Focusing on breaking through the physical and chemical boundaries of materials, Phoelix Tech has successfully constructed a silicon-carbon anode system that balances high intrinsic safety with ultra-high specific energy, based on the fundamental mechanisms of structural thermodynamics and multi-scale interface engineering. Tailoring to the specific operating profiles of diverse special missions, we provide full-chain customized development ranging from micro-pore configuration regulation to macroscopic electrochemical property adaptation. While demonstrating exceptional resilience against extreme environmental interference, this material system provides robust foundational support for the cross-generational performance iterations of advanced special equipment.
航空航天
Aerospace
针对航天器在轨面临的高真空与宽温变环境，锂凰科技开发了深度适配固态电池体系的高结构稳定性硅碳负极。该材料引入微观应力耗散机制以有效抑制充放电过程中的体积膨胀，在支撑系统实现 ≥500Wh/kg 超高比能量的同时，满足“穿刺不起火”的安全级规范，为卫星及航天器的长效稳定运行提供关键材料保障。
Targeting the high vacuum and wide temperature variations faced by spacecraft in orbit, Phoelix Tech has developed a highly structurally stable silicon-carbon anode deeply compatible with solid-state battery systems. By introducing a micro-stress dissipation mechanism to effectively suppress volume expansion during charge-discharge cycles, this material supports the system in achieving an ultra-high specific energy of ≥ 500 Wh/kg while meeting the safety standards of “non-ignition upon puncture,” providing a robust material foundation for the long-term, stable operation of satellites and spacecraft.
特种电源系统
Special Power Supply System
针对深海、深空、潜航、深地等高复杂度多维特种场景，动力单元往往面临受限空间、高压强以及复杂热力学环境的综合考验。锂凰科技通过自适应微孔隙调控与稳态弹性界面构筑，从底层强化了硅碳负极的结构应力耐受性。该材料体系有效缓解了宽温域交变引起的性能衰减，在面临高环境应力与严苛密闭的工况时，依然能够维持高能量密度与长周期的稳定输出。基于此体系优化的特种电源，可显著延长装备的综合续航时间，为复杂环境下的高可靠性任务提供稳健动力支撑。
Targeting highly complex, multi-dimensional special scenarios such as deep sea, deep space, submersibles, and deep earth, power units often face the comprehensive challenges of confined spaces, high pressure, and complex thermodynamic environments. Through adaptive micro-pore regulation and the construction of steady-state elastic interfaces, Phoelix Tech fundamentally strengthens the structural stress tolerance of the silicon-carbon anode. This material system effectively mitigates performance degradation caused by alternating wide-temperature cycles. When subjected to high environmental stress and strictly sealed conditions, it consistently maintains high energy density and long-cycle stable output. Special power supplies optimized based on this system can significantly extend the overall endurance of equipment, providing robust power support for high-reliability missions in complex environments.
