All-Permanent-Magnet 14.5-GHz ECR Ion Source
All-Permanent-Magnet 14.5-GHz ECR Ion Source
批准号:
531528069
负责人:
金额:
$0.0万
依托单位国家:
德国
项目类别:
Major Research Instrumentation
财政年份:
2023
资助国家:
德国
项目状态:
未结题
起止时间:
2022-12-31 至 --
中文摘要
该提案要求为原子和分子碰撞实验提供一种特殊类型的离子源,这与中子星碰撞的物理学特别相关。该仪器是最先进的全永磁体14.5 ghz电子回旋共振离子源(ECRIS),可以有效地从可蒸发的样品材料中产生(金属)多重带电的原子离子和分子离子。该ECRIS将提供比吉森原子和分子物理小组目前可用的更高的离子束强度,因此,极大地增强了该小组在吉森的实验装置和外部大型研究设施的研究能力,如在汉堡由DESY操作的同步加速器辐射源PETRA III和在达姆施塔特由GSI操作的重离子储存环CRYRING。ECRIS将只包含永久磁铁,这样它就不需要像较大的ECRIS那样为磁铁线圈供电。因此,所要求的仪器的功耗将相对适度,允许在大学实验室的可持续操作。ECRIS的高度集成设计及其技术外围,如射频(RF),气体入口和水冷却系统,将有助于方便地运输到上述研究地点,在那里,该仪器将实现世界上独一无二的带电量子物质与x射线和粒子束相互作用的实验。
英文摘要
The proposal asks for a special type of ion source for atomic and molecular collision experiments that are of particular relevance for the physics of neutron-star collisions. The to be acquired instrument is a state-of-the-art all-permanent-magnet 14.5-GHz electron-cyclotron-resonance ion source (ECRIS) which can efficiently produce (metallic) multiply charged atomic ions and molecular ions from evaporable sample material. This ECRIS will deliver much higher ion-beam intensities than what is currently available to the Giessen Atomic- and Molecular Physics Group and, thus, greatly enhance the group's research capabilities at its experimental set-ups in Giessen and at external large-scale research facilities such as the synchrotron radiation source PETRA III operated by DESY in Hamburg and the heavy-ion storage ring CRYRING operated by GSI in Darmstadt. The ECRIS will contain only permanent magnets, such that it does not require the operation of power supplies for magnet coils as larger ECRIS do. Consequently, the power consumption of the asked for instrument will be comparatively modest allowing for a sustainable operation in a university laboratory. The highly integrated design of the ECRIS and its technical periphery such as the radio-frequency (RF), gas inlet, and water-cooling systems will facilitate an easy transport to the above mentioned research locations, where the instrument will enable world-unique experiments on the interaction of charged quantum matter with x-rays and particle beams.
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