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    • 86. 发明公开
    • MASS SPECTROMETRY DEVICE
    • 群发器
    • EP2717292A4
    • 2015-04-22
    • EP12791957
    • 2012-04-09
    • HITACHI HIGH TECH CORP
    • SAMPEI MAKOTO
    • H01J49/06G01N27/62H01J49/10H01J49/42
    • H01J49/02G01N27/624H01J37/32862H01J37/32917H01J37/32935H01J37/32981H01J37/3299H01J49/067
    • When a specimen from a specimen ionizing unit (ion source) is introduced, the specimen, if not sufficiently ionized, is caused to remain in sites other than a pore in an introducing section and then deposited as a product such as an oxide or carbide by an energy such as heat. The deposited deposit causes a deterioration in the performance of the mass spectrometry device. The present invention has a specimen supply source, a specimen ionizing section for ionizing a specimen supplied from the specimen supply source, a specimen-introduction regulating chamber into which ions of the ionized specimen are introduced, a differential evacuation chamber located at the downstream side of the specimen-introduction regulating chamber, and an analyzing section located at the downstream side of the differential evacuation chamber, in which a discharge generating means is formed for generating an electric discharge inside at least one of the specimen-introduction regulating chamber and the differential evacuation chamber. The discharge generating means has a specimen introducing section electrode and a first-pore-section-forming member (electrode) located oppositely to each other inside the specimen-introduction regulating chamber, or a first-pore-section-forming member (electrode) and a second-pore-section-forming member (electrode) located oppositely to each other inside the differential evacuation chamber.
    • 87. 发明公开
    • Remote plasma system having self management function and self management method of the same
    • 具有自管理功能和自我管理方法及其远程等离子体系统
    • EP2806714A3
    • 2015-01-07
    • EP13182154.8
    • 2013-08-29
    • Choi Dae, Kyu
    • Choi Dae, Kyu
    • H05H1/46H01J37/32
    • H01J37/32935H01J37/32357H01J37/32917H01J37/3299H05H1/46H05H2001/463
    • A remote plasma system having a self management function of the present invention measures an operating state of a remote plasma generator while a remote plasma generator operates, which generates plasma and remotely supplies the generated plasma to a process chamber, thereby allowing a process manager to check the measured operating state and performing a required process control depending on an operating state. According to the remote plasma system having the self management function of the present invention, it is possible to check operating state information of the remote plasma generator in real time so as to judge whether the remote plasma generator normally operates and immediately sense occurrence of an error during the operation. Further, it is possible to check in real time the operating state information of the remote plasma generator and plasma treatment process progress state information in the process chamber while the plasma generated from the remote plasma generator is supplied to the process chamber. Therefore, a process manager can determine an operating state of the remote plasma system in real time and immediately cope with an abnormal operation when the abnormal operation occurs. Further, the process manager can determine the system in real time at the time when maintenance of the system is required, thereby increasing maintenance efficiency.
    • 88. 发明公开
    • Sensoranordnung zur Charakterisierung von Plasmabeschichtungs-, Plasmaätz- und Plasmabehandlungsprozessen sowie Verfahren zur Ermittlung von Kenngrößen in diesen Prozessen
    • 用于参数在这些过程中的确定等离子喷涂,等离子蚀刻和等离子处理过程和程序的表征传感器布置
    • EP2562784A3
    • 2014-06-25
    • EP12005982.9
    • 2012-08-22
    • Helmholtz-Zentrum Berlin für Materialien und Energie GmbH
    • Ellmer, KlausHarbauer, Karsten
    • H01J37/32G01B7/06
    • H01J37/32935G01B7/066H01J37/32917H05H1/0075
    • Bei der beanspruchten Sensoranordnung ist die dem Plasmaätz-, Plasmabeschichtungs- oder Plasmabehandlungsprozess ausgesetzte Frontelektrode (2) des Schwingquarzes (1) isoliert gegen das Gehäuse (5) der Anordnung und als planare Langmuir-Sonde ausgebildet und mit einem außerhalb der Plasmaanlage angeordneten Strom-Spannungs-Kennlinien-Messgerät (14) zur Messung der Langmuir-Kennlinie (I L (U)) verbunden, gegenüber der Rückelektrode (3) des Schwingquarzes (1) ist ein pyrometrischer Sensor (4) zur Messung der mittleren Temperatur (T Q ) der Rückelektrode (3) des Schwingquarzes (1) angeordnet und der Schwingquarz (1) mit seiner als planare Langmuir-Sonde ausgebildeten Frontelektrode (2) und der pyrometrische Sensor (4) bilden einen Kombinationssensor (10), der in einem Sensorgehäuse (5) angeordnet ist, das eine der Frontelektrode (2) des Schwingquarzes (1) gegenüber liegende Öffnung aufweist, außerhalb des Sensorgehäuses (5) zwischen dessen Öffnung und der Plasmaquelle in der Plasmaanlage eine schwenkbare Abschirmblende (9) angeordnet ist, der Kombinationssensor (10) verfahrbar ausgebildet und mit Mess-(12, 13, 14) und Auswerteeinheiten und diese mit einem Rechner (15) zur Datenaufnahme, -auswertung und -darstellung verbunden sind, wobei der Schwingquarz (1) mit einer Messeinheit (13) für die Bestimmung der Schwingquarzfrequenz (f Q ) und die planare Langmuir-Sonde (14) mit einer Messeinheit für die Messung ihrer Strom-Spannungs-Kennlinie (I L (U)) und der pyrometrische Sensor (4) mit einem Messverstärker (12) verbunden ist, und der Rechner (15) mittels eines Messprogramms aus diesen Messgrößen die Abscheide - bzw. Ätzrate (R(t)), die Plasmadichte (n e bzw. n i ), die Elektronentemperatur (T e ) und den totalen Energieeintrag (E ein ) der Plasmaprozesse ermittelt.
    • 89. 发明公开
    • MASS SPECTROMETRY DEVICE
    • MASSENSPEKTROMETRIEVORRICHTUNG
    • EP2717292A1
    • 2014-04-09
    • EP12791957.9
    • 2012-04-09
    • Hitachi High-Technologies Corporation
    • SAMPEI, Makoto
    • H01J49/06G01N27/62H01J49/10H01J49/42
    • H01J49/02G01N27/624H01J37/32862H01J37/32917H01J37/32935H01J37/32981H01J37/3299H01J49/067
    • When a specimen from a specimen ionizing unit (ion source) is introduced, the specimen, if not sufficiently ionized, is caused to remain in sites other than a pore in an introducing section and then deposited as a product such as an oxide or carbide by an energy such as heat. The deposited deposit causes a deterioration in the performance of the mass spectrometry device. The present invention has a specimen supply source, a specimen ionizing section for ionizing a specimen supplied from the specimen supply source, a specimen-introduction regulating chamber into which ions of the ionized specimen are introduced, a differential evacuation chamber located at the downstream side of the specimen-introduction regulating chamber, and an analyzing section located at the downstream side of the differential evacuation chamber, in which a discharge generating means is formed for generating an electric discharge inside at least one of the specimen-introduction regulating chamber and the differential evacuation chamber. The discharge generating means has a specimen introducing section electrode and a first-pore-section-forming member (electrode) located oppositely to each other inside the specimen-introduction regulating chamber, or a first-pore-section-forming member (electrode) and a second-pore-section-forming member (electrode) located oppositely to each other inside the differential evacuation chamber.
    • 当引入来自试样离子化单元(离子源)的样品时,如果不充分离子化,则将样品保留在导入部中除了孔以外的位置,然后通过以下方式沉积作为产物如氧化物或碳化物 一种能量如热量。 沉积的沉积物导致质谱装置的性能的劣化。 本发明提供了一种试样供给源,用于离子化从试样供给源供给的试样的试样离子化部,导入离子化试样的离子的试样导入调节室,位于下游侧的差动抽空室 试样引入调节室和位于差动排空室的下游侧的分析部,其中形成有用于在至少一个试样导入调节室和差动抽出中产生放电的排出产生装置 室。 放电产生装置具有在试样引入调节室内的相对定位的试样导入部电极和第一孔部形成部件(电极),或第一孔部形成部件(电极)和 位于差动抽空室内的彼此相对设置的第二孔部形成部件(电极)。