超冷电子源开发博士研究员（科研助理，EUR 3204 - 4051 每月）- 用于时间分辨蛋白质晶体学
PhD on Ultracold electron source development for time-resolved protein crystallography
原帖优先：申请材料、截止时间与资格以原帖和学校官方说明为准。
AI 中文速览
- 研究内容
- 开发基于激光冷却原子光电离的脉冲电子源，用于时间分辨蛋白质晶体学
- 申请条件
- 原文未说明
- 待遇
- EUR 3204 - 4051 每月
- 申请方式
- 原文未说明
由 @cf/meta/llama-3.3-70b-instruct-fp8-fast 生成，博士岗判定置信度 100%。
岗位信息
- 截止
- （Europe/Amsterdam） 剩 30 天
- 学科
- 物理与天文
- 合同类型
- 雇佣合同
- 原文薪资
- EUR 3,204–4,051 / 月（税前）
- 税后月薪（估）
- ¥19,000–¥24,000；房租后 ¥11,100–¥16,100
- 估算假设
- 单身、无子女、雇佣合同的粗略估算，以学校 offer 为准；扣除率 25%；汇率日期 2026-10-01
- 原帖发布
- 本站收录
- 内容更新
- 原帖导师候选（待核验）
- Julius Huijts
- 来源
- AcademicTransfer（荷兰学术招聘） · 最近核对 2026-10-22
- 详情核验
判定依据（原文摘录）
- is_phd
PhD on Ultracold electron source development
原文
Are you excited to solve technical challenges with a real-world application? Are you eager to build something truly unique in the world?
Development of a pulsed electron source with extreme transverse bunch brightness, based on photo-ionization of laser-cooled atoms, for time-resolved protein crystallography.
Context: ERC-funded project “Cool T-ReX”
Goal: Develop a unique and innovative instrument to enable time-resolved protein crystallography with electrons (and be the first in the world in doing so).
Scientific relevance: Understanding how proteins function is crucial to improving medicine and unraveling processes that are fundamental to life. Time-resolved protein crystallography uniquely allows following the conformational change of a protein with unprecedented spatial and temporal resolution, yielding a “molecular movie” of how the protein performs its function. This is currently only possible on large-scale X-ray facilities. In this project we will build the very first instrument that can make such movies through time-resolved protein crystallography with electrons rather than X-rays, on a laboratory-scale setup. Next, through collaboration with leading research groups in time-resolved protein crystallography, we will demonstrate the instrument’s capabilities in time-resolved crystallography experiments on photo-active proteins with medical relevance (and used in the field of optogenetics, awarded this year’s Nobel Prize in Medicine!).
Your role: Drive the development of this unique instrument. You will build on our research group’s two decades of experience in building electron sources based on the photo-ionization of laser-cooled atoms. This technique has demonstrated electron pulses with record-low transverse temperatures, corresponding to a high transverse coherence, as needed for protein crystallography. In this project we will push this transverse coherence even further, making use of some of the unique capabilities of this source technology. The result will be an electron beam with a “transverse bunch brightness” that is three orders of magnitude beyond the current state of the art. To reach this ambitious goal, you will work with a team of experienced technicians, a second PhD student, a PostDoc, and the PI (Julius Huijts). We are part of the larger Coherence and Quantum Technology group in the Department of Applied Physics.