特斯拉0-2年毕业生-电池设备自动化工程师
任职要求
2024年1月-2026年10月毕业，统招本科及以上学历；
毕业于电气类、自动化、自动控制、机器视觉等相关专业；
承压能力强，乐于接受挑战 ，对智能制造、工业自动化技术有浓厚的兴趣及独到的见解；
具有极强的自驱力，学习能力和吃苦耐劳的精神 ；
学业期间表现优异，成绩突出。
工作在特斯拉：
富有竞争力的基本薪酬：在特斯拉，所有岗位的薪酬都会从多重维度对标行业内外的顶尖公司，通过制定科学合理的薪酬方案以确保薪酬的竞争力。
全员持股：每位加入特斯拉的伙伴都会被股票激励政策所覆盖，成为特斯拉的股东；同时，员工还可以参与员工股票购买计划（ESPP），以优惠的折扣价购买特斯拉股票，与公司实现财富的共同成长。
补充住房公积金：特斯拉为每位员工缴纳高标准的住房公积金，缴纳标准为12%，当城市最高缴纳标准低于12%时，公司将通过现金的方式补齐。
补充商业医疗保险：特斯拉免费提供超高保额的商业医疗保险，不仅覆盖员工个人，还包括其配偶…工作职责
THE ROLE 作为电池设备自动化工程师，你将主要负责特斯拉电池产线的设备管理，保障其正常运行。你能够领略到现代工业智能制造的无限魅力，并能够掌握全球最领先的电池制造工艺装备技术，也有机会成为装备的创造者；获取行业顶尖的培训资源，助力你成为工业自动化技术专家；扁平化结构，多样化职业发展通道助你快速成长。 RESPONSIBILITIES职责描述： 响应生产现场设备问题，快速分析并解决，同时通过软件优化提高设备运行表现，保障并持续提升设备开动率； 熟悉统计过程控制和特斯拉工厂数据系统，以确保产品及零件的可追溯性； 与跨职能团队协同工作，质量工程、制造工程、信息技术工程、产品工程等； 通过设备程序代码调优，降低可编程控制器资源占用，优化扫描周期； 主导新项目可编程控制器及上位机的软件开发； 开发/迭代特斯拉软件标准，为更高效的设备运行及新设备导入； 自动化前沿技术、新设备的研究、开发及应用； 运用数字化技术，赋能高效智能的工厂运营； 遵守公司规章制度，严格按照作业指导书工作，积极查找安全隐患，及时汇报安全隐患和事故，提出安全合理化建议，通过不断改进，创造安全健康的工作环境 REQUIREMENTS
THE ROLE We are looking for a highly motivated and talented engineer to join the Battery Structures Team. Our team is responsible for a wide range of components which house multiple battery subsystems. We also provide key structural members that influence overall vehicle performance. The core focus of our group is integration, packaging, and structural design. Our battery not only provides structure to the internal components but is also a critical part of the overall vehicle structure to create the most efficient and safe vehicles. We are always pushing the limit on what is possible. We challenge industry standards as well as our own. You will be working with extremely motivated engineers that hold themselves to the highest standards. You must be excited to engineer the best EV in the world and willing to push yourself to the limit. Because Tesla moves fast, it is critical to be able to adapt to changes and collabrate with large groups of people in a short amount of time. Successful members of the team will have a breadth of design engineering interests, think outside of the box, and have capabilities and aptitude for structural mechanics and optimization. ROLE & RESPONSIBILITIES System level design responsibility, from concept through production launch and ramp 3D design and GD&T drawings of complex parts and assemblies Support ongoing/continuous product and process improvement Owning basic testing and analysis, supporting advanced testing and analysis Root causing test failures and production problems Collaboration with other teams inside Tesla (manufacturing, testing, NPI, supply chain, etc.) Active communication with suppliers for DFM Optimize designs via analytical, numerical, and/or empirical assessments Visit suppliers and help them improve their process and production lines to make sure incoming parts are high quality. Respond to problems on the production line, perform root cause analysis, develop a solution, and validate the solution before pushing to production.
THE ROLE We are looking to hire a test engineer focused on Battery Electronics for our Hardware Testing team. As a Battery Electronics Test Engineer, you will work with a passionate and multi-disciplinary group of engineers while learning how to build and use hardware, firmware, and software solutions to validate Tesla Battery Electronics products to rigorous internal and automotive-industry standards. We are interested in diverse candidates of relevant experience, and we will prioritize curious and driven engineers with strong problem solving, communication, and collaboration skills. RESPONSIBILIES · Design, build, instrument, and automate testing equipment for electrical, thermal, and mechanical testing · Work together with Design Engineers, Reliability scientists, Material scientists, Quality, and Service to identify failure modes and generate design validation and reliability test plans · Perform validation and reliability testing at the component and system levels, simulating realistic and accelerated stress conditions · Collaborate with test technicians as peers to achieve test objectives · Investigate Battery Electronics assembly and subassembly failures to drive product development and test improvement · Identify and execute experiments targeting new technologies or critical failures · Interface and simulate complex vehicular systems to validate firmware/hardware interactions · Create novel ways to apply skills learned in the test lab to benefit vehicle products
面向对象：0-2年内毕业的应届生，包含2025年。 The Role Tesla’s Systems Integration Team is seeking an Integration Engineer who will be responsible for ensuring firmware support for new vehicle features and new hardware are designed, implemented, and tested to achieve Tesla’s standards for safety and customer experience. The Integration Engineer is expected to move projects along at an aggressive pace – keeping track of program milestones and deliverables and pulling together the contributions of many teams into a cohesive final product. The Integration Engineer is also expected to get their hands dirty in the details of their sub-systems – digging through source code, root causing issues and proposing solutions to complex problems, as well as testing prototype firmware implementations in-vehicle. Battery Management Systems are comprised of the controllers and firmware that monitor the battery, ensure it is delivering the most power and energy possible while maximizing capacity retention over life. BMS integration engineers are responsible for the performance of algorithms that predict available power and energy, and functions that ensure optimal charging, effective thermal management and high voltage safety monitoring. Responsibilities Work with the design and development engineers throughout the engineering organization to ensure the relevant subsystems are designed with appropriate requirements, interfaces and interactions to achieve specific vehicle functions. Break down new, high-level feature requests into sub-system and component level requirements, and drive the implementation, testing and release of these features against Tesla’s firmware release schedule Utilize critical analysis of potential failure modes and effects to influence these