Professional Certificate in Commercial Battery Aging Prediction
-- ViewingNowThe Professional Certificate in Commercial Battery Aging Prediction is a course designed to equip learners with the essential skills needed to predict battery aging in commercial applications. This course is crucial in the current industry landscape, where there is a high demand for professionals who can optimize battery performance and lifespan in electric vehicles, renewable energy systems, and grid storage solutions.
3,765+
Students enrolled
GBP £ 140
GBP £ 202
Save 44% with our special offer
ě´ ęłźě ě ëí´
100% ě¨ëźě¸
ě´ëěë íěľ
ęłľě ę°ëĽí ě¸ěŚě
LinkedIn íëĄíě ěśę°
ěëŁęšě§ 2ę°ě
죟 2-3ěę°
ě¸ě ë ěě
ë기 ę¸°ę° ěě
ęłźě ě¸ëśěŹí
⢠Introduction to Battery Aging Prediction: Overview of the importance of battery aging prediction, the role of commercial batteries, and the key factors affecting battery aging.
⢠Fundamentals of Battery Technology: Basics of battery types, chemistries, and their respective aging characteristics.
⢠Data Collection for Battery Aging Prediction: Techniques and best practices for data collection, including sensor selection and placement, data preprocessing, and handling missing data.
⢠Feature Engineering for Battery Aging Models: Overview of different features and their relevance, including voltage, current, temperature, and state of charge (SoC), and selection of appropriate features.
⢠Advanced Machine Learning Techniques for Battery Aging Prediction: Exploration of various machine learning algorithms, such as support vector machines, decision trees, and artificial neural networks, to predict battery aging.
⢠Deep Learning for Battery Aging Prediction: Introduction to deep learning techniques, including recurrent neural networks (RNNs) and long short-term memory (LSTM) networks, and their application in predicting battery aging.
⢠Model Validation and Evaluation: Techniques for validating and evaluating battery aging prediction models, including cross-validation, statistical testing, and performance metrics.
⢠Practical Applications and Case Studies: Real-world applications of battery aging prediction, including energy storage systems, electric vehicles, and grid-scale energy storage, and case studies demonstrating the impact and benefits of accurate aging prediction.
⢠Future Trends and Challenges in Battery Aging Prediction: Exploration of emerging trends and challenges, including the development of new battery chemistries, the integration of renewable energy sources, and the need for standards and regulations.
ę˛˝ë Ľ 경ëĄ
ě í ěęą´
- 죟ě ě ëí 기본 ě´í´
- ěě´ ě¸ě´ ëĽěë
- ěť´í¨í° ë° ě¸í°ëˇ ě ꡟ
- 기본 ěť´í¨í° 기ě
- ęłźě ěëŁě ëí íě
ěŹě ęłľě ěę˛Šě´ íěíě§ ěěľëë¤. ě ꡟěąě ěí´ ě¤ęłë ęłźě .
ęłźě ěí
ě´ ęłźě ě ę˛˝ë Ľ ę°ë°ě ěí ě¤ěŠě ě¸ ě§ěęłź 기ě ě ě ęłľíŠëë¤. ꡸ę˛ě:
- ě¸ě ë°ě 기ę´ě ěí´ ě¸ěŚëě§ ěě
- ęśíě´ ěë 기ę´ě ěí´ ęˇě ëě§ ěě
- ęłľě ě겊ě ëł´ěě
ęłźě ě ěąęłľě ěźëĄ ěëŁí늴 ěëŁ ě¸ěŚě뼟 ë°ę˛ ëŠëë¤.
ě ěŹëë¤ě´ ę˛˝ë Ľě ěí´ ě°ëŚŹëĽź ě ííëę°
댏롰 ëĄëŠ ě¤...
ě죟 돝ë ě§ëʏ
ě˝ě¤ ěę°ëŁ
- 죟 3-4ěę°
- 쥰기 ě¸ěŚě ë°°ěĄ
- ę°ë°Ší ëąëĄ - ě¸ě ë ě§ ěě
- 죟 2-3ěę°
- ě 기 ě¸ěŚě ë°°ěĄ
- ę°ë°Ší ëąëĄ - ě¸ě ë ě§ ěě
- ě 체 ě˝ě¤ ě ꡟ
- ëě§í¸ ě¸ěŚě
- ě˝ě¤ ěëŁ
ęłźě ě ëł´ ë°ę¸°
íěŹëĄ ě§ëś
ě´ ęłźě ě ëšěŠě ě§ëśí기 ěí´ íěŹëĽź ěí ě˛ęľŹě뼟 ěě˛íě¸ě.
ě˛ęľŹěëĄ ę˛°ě ę˛˝ë Ľ ě¸ěŚě íë