市场调查报告书
商品编码
1383259
全球卫星电池市场(2023-2033)Global Satellite Batteries Market 2023-2033 |
卫星电池市场是指製造、分销和销售专门设计用于卫星和其他天基应用的电池的行业。 这些电池对于卫星在发射、在轨道上运行、日食和紧急情况等各个运行阶段的供电至关重要。 卫星电池市场包括针对太空任务特定需求量身定制的各种电池技术和设计。
镍镉电池因其耐用性、可靠性和耐温性而长期用于卫星。 然而,由于其能量密度低以及与镉相关的环境问题,其使用随着时间的推移而减少。
镍氢 (NiH2) 电池通常用于卫星,特别是高功率应用。 它们比镍镉电池具有更高的能量密度、更长的循环寿命并且耐高温环境。
锂离子电池由于比传统镍基电池具有更高的能量密度、更轻的重量和更长的循环寿命,在卫星行业中越来越受欢迎。 由于尺寸小,锂离子电池具有卓越的性能,是小型卫星和立方体卫星的理想选择。
电池技术的进步导致了能量密度更高、循环寿命更长的电池的发展,使卫星能够长时间运行而无需更换电池或充电。 这对于长期任务、深空探索以及日食期间太阳能电池板不暴露在阳光下的不间断运作至关重要。
卫星在极端温度环境下运行,从极冷到极热。 电池设计和材料不断改进,以承受这些极端温度环境,并在卫星的整个使用寿命中保持最佳性能。
卫星电池必须安全可靠,因为故障会对任务的成功产生重大影响。 为了确保电池在太空中安全可靠地运行,电池製造商专注于实现热保护、过充和过放保护以及稳健的电池设计等安全功能。
本报告分析了全球卫星电池市场,并探讨了整体市场规模的前景、按地区和国家划分的详细趋势、关键技术概述以及市场机会。
The satellite batteries market refers to the industry that manufactures, distributes, and sells batteries designed specifically for use in satellites and other space-based applications. These batteries are critical for powering satellites during various operational phases, such as launch, in-orbit operations, eclipses, and emergencies. The satellite batteries market includes a variety of battery technologies and designs that are tailored to the specific needs of space missions.
NiCd batteries have long been used in satellites due to their durability, dependability, and temperature tolerance. However, their use has declined over time due to their lower energy density and cadmium-related environmental concerns.
In satellites, NiH2 batteries are commonly used, particularly for high-power applications. They have a higher energy density than NiCd batteries, a longer cycle life, and are more resistant to high-temperature environments.
Because of their high energy density, lightweight nature, and longer cycle life when compared to traditional nickel-based batteries, lithium-ion batteries are gaining popularity in the satellite industry. Because of their small size, Li-ion batteries provide excellent performance and are ideal for small satellites and CubeSats.
Battery technology advancements have resulted in the development of batteries with higher energy density and longer cycle life, allowing satellites to operate for extended periods without the need for battery replacement or recharge. This is essential for long-duration missions, deep space exploration, and uninterrupted operation during eclipses when solar panels are not exposed to sunlight.
Satellites operate in extreme temperature environments that range from extremely cold to extremely hot. To withstand these temperature extremes and maintain optimal performance throughout the satellite's operational lifespan, battery designs, and materials are constantly improved.
Satellite batteries must be safe and reliable, as failures can have serious consequences for mission success. To ensure the safe and reliable operation of batteries in space, battery manufacturers focus on implementing safety features such as thermal protection, overcharge and over-discharge protection, and robust cell designs.