electrothermal

简明释义

英[ɪˌlektrəʊˈθɜːməl]美[ɪˌlektroˈθɜːrməl]

adj. [电] 电热的

英英释义

单词用法

同义词

反义词

例句

1.Obiective Test the relationship between the heating time of electrothermal vaporizing liquid and the residues of pyrethroid in mandril.

目的测试电热蚊香液加热时间与芯棒中拟除虫菊酯残留量的关系。

2.The one dimensional two phase flow model of solid propellant electrothermal chemical gun (SPETCG) is established in the paper.

该文建立了固体工质电热化学炮(SPETCG)内弹道一维两相流模型。

3.Methods: to employ an electrothermal drier as a heat source and measure density of grey scale in film with a densitometer.

方法：使用电热干燥箱作热源，用密度计测量胶片上各级灰阶的密度。

4.Electrothermal membrane heating, is made of carbon fiber cotton on the heating body and the temperature control system.

电热膜地暖，是由碳纤维棉上发热体和温控器系统组成。

5.The invention also provides a textile material with electrothermal function, which is made of said textile material.

本发明还提供一种有电热功能的纺织材料，其采用上述纺织材料制成。

6.DTH series electrothermal sugar melting boiler melts sugar into syrup through electrothermal tube.

DTH系列电热化糖锅通过电热管加温将糖化成糖浆。

7.With electromagnetic, electrothermal, and electrostatic micro actuators, this bistable structure can be applied to permanent magnet bistable MEMS relay.

此双稳态机构可与电磁驱动、电热驱动和静电驱动等类型的微驱动器联用构成永磁双稳态MEMS微继电器。

8.The new heating system utilizes electrothermal 电热的 technology to improve energy efficiency.

新的供暖系统利用电热的技术来提高能源效率。

9.In laboratories, electrothermal 电热的 devices are often used for precise temperature control.

在实验室中，电热的设备通常用于精确的温度控制。

10.The electrothermal 电热的 process is essential for certain chemical reactions.

对于某些化学反应，电热的过程是必不可少的。

11.Our team is researching electrothermal 电热的 materials for use in spacecraft.

我们的团队正在研究用于航天器的电热的材料。

12.The electrothermal 电热的 heating elements can be integrated into various appliances.

这些电热的加热元件可以集成到各种电器中。

作文

The concept of electrothermal technology has gained significant attention in recent years, particularly in the fields of energy efficiency and thermal management. The term electrothermal refers to the generation of heat through electrical energy, which can be utilized in various applications ranging from industrial processes to residential heating systems. One of the primary advantages of electrothermal methods is their ability to provide precise temperature control, making them ideal for processes that require specific thermal conditions. In industrial settings, electrothermal systems are often employed in manufacturing processes where maintaining a consistent temperature is crucial. For example, in the production of semiconductors, the materials must be heated to exact temperatures to ensure proper crystallization. Traditional heating methods may not offer the required precision, leading to potential defects in the final product. By utilizing electrothermal technology, manufacturers can achieve higher quality results while reducing energy consumption. Moreover, electrothermal systems are increasingly being integrated into renewable energy solutions. For instance, solar thermal energy systems can use electrothermal methods to convert sunlight into heat, which can then be stored or used directly for heating purposes. This integration not only enhances the efficiency of solar energy systems but also contributes to the overall sustainability of energy consumption. In residential applications, electrothermal heating solutions, such as electric underfloor heating and infrared heating panels, have become popular among homeowners seeking comfort and efficiency. These systems provide an even distribution of heat, eliminating cold spots often found in traditional heating methods like radiators. Additionally, electrothermal heating can be controlled via smart home technology, allowing users to adjust temperatures remotely and optimize energy usage based on their schedules. Despite the numerous benefits of electrothermal technology, there are challenges that need to be addressed. The initial investment for electrothermal systems can be higher than conventional heating methods. However, the long-term savings in energy costs and maintenance often justify the upfront expenses. Furthermore, as technology continues to advance, we can expect to see reductions in the costs associated with electrothermal solutions, making them more accessible to a broader audience. In conclusion, the future of electrothermal technology looks promising as it continues to evolve and integrate into various sectors. Its ability to provide efficient, precise, and sustainable heating solutions aligns well with the global push towards energy conservation and environmental responsibility. As more industries and households adopt electrothermal systems, we will likely witness a significant shift in how we approach heating and energy management in our daily lives. Embracing this technology not only enhances our quality of life but also contributes to a greener planet, making it a vital component of our energy future.

电热技术的概念近年来引起了广泛关注，特别是在能源效率和热管理领域。术语electrothermal指通过电能产生热量，这可以用于从工业过程到住宅供暖系统的各种应用。electrothermal方法的主要优点之一是它们能够提供精确的温度控制，使其成为需要特定热条件的过程的理想选择。 在工业环境中，electrothermal系统通常用于制造过程中，在这些过程中保持一致的温度至关重要。例如，在半导体生产中，材料必须加热到精确的温度，以确保适当的结晶。传统的加热方法可能无法提供所需的精度，从而导致最终产品可能出现缺陷。通过利用electrothermal技术，制造商可以实现更高质量的结果，同时降低能源消耗。 此外，electrothermal系统越来越多地集成到可再生能源解决方案中。例如，太阳能热能系统可以使用electrothermal方法将阳光转化为热量，然后储存或直接用于供暖。这种集成不仅提高了太阳能系统的效率，还对整体能源消费的可持续性做出了贡献。 在住宅应用中，electrothermal供暖解决方案，如电热地板供暖和红外供暖面板，已经成为寻求舒适和效率的房主的热门选择。这些系统提供均匀的热量分布，消除了传统供暖方法（如散热器）中常见的冷点。此外，electrothermal供暖可以通过智能家居技术进行控制，使用户能够远程调节温度，并根据他们的日程优化能源使用。 尽管electrothermal技术有众多优点，但仍需解决一些挑战。electrothermal系统的初始投资可能高于传统供暖方法。然而，长期的能源成本和维护节省通常证明了前期支出的合理性。此外，随着技术的不断进步，我们可以预期与electrothermal解决方案相关的成本将会降低，使其对更广泛的受众更加可及。 总之，随着electrothermal技术的不断发展和在各个领域的集成，其未来看起来充满希望。它提供的高效、精确和可持续的供暖解决方案与全球推动能源节约和环境责任的趋势高度契合。随着越来越多的行业和家庭采用electrothermal系统，我们可能会见证我们在日常生活中如何看待供暖和能源管理的重大转变。接受这一技术不仅提高了我们的生活质量，还有助于保护地球，使其成为我们能源未来的重要组成部分。