摘要:
An interface, a scanning electron microscope and a method for observing an object that is positioned in a non-vacuum environment. The method includes: generating an electron beam in the vacuum environment; scanning a region of the object with the electron beam while the object is located below an object holder; wherein the scanning comprises allowing the electron beam to pass through an aperture of an aperture array, pass through an ultra thin membrane that seals the aperture, and pass through the object holder; wherein the ultra thin membrane withstands a pressure difference between the vacuum environment and the non-vacuum environment; and detecting particles generated in response to an interaction between the electron beam and the object.
摘要:
A vacuumed device that includes: a sealed housing, an electron beam source, an electron optic component, a thin membrane, and a detector. The thin membrane seals an aperture of the sealed housing. The sealed housing defines a vacuumed space in which vacuum is maintained. The electron beam source is configured to generate an electron beam that propagates within the vacuumed space, interacts with the electron optic component and passes through the thin membrane. A first portion of the sealed housing is shaped to fit a space defined by non-vacuumed scanning electron microscope components that are maintained in a non-vacuum environment.
摘要:
Various approaches for computationally generating a protocol for treatment of one or more target BBB regions within a tissue region of interest using a source of focused ultrasound include specifying (i) settings of sonication parameters for applying one or more sequence of sonications to the target BBB region using the source of focused ultrasound and (ii) a characteristic of microbubbles selected to be administered into the target BBB region; electronically simulating treatment in accordance with the protocol at least in part by computationally executing the sequence(s) of sonications and computationally administering the microbubbles having the characteristic; and computationally predicting a tissue disruption effect of the target BBB region resulting from the treatment.
摘要:
An interface, a scanning electron microscope and a method for observing an object that is positioned in a non-vacuum environment. The method includes: generating an electron beam in the vacuum environment; scanning a region of the object with the electron beam while the object is located below an object holder; wherein the scanning comprises allowing the electron beam to pass through an aperture of an aperture array, pass through an ultra thin membrane that seals the aperture, and pass through the object holder; wherein the ultra thin membrane withstands a pressure difference between the vacuum environment and the non-vacuum environment; and detecting particles generated in response to an interaction between the electron beam and the object.
摘要:
Various approaches for computationally generating a protocol for treatment of one or more target BBB regions within a tissue region of interest using a source of focused ultrasound include specifying (i) settings of sonication parameters for applying one or more sequence of sonications to the target BBB region using the source of focused ultrasound and (ii) a characteristic of microbubbles selected to be administered into the target BBB region; electronically simulating treatment in accordance with the protocol at least in part by computationally executing the sequence(s) of sonications and computationally administering the microbubbles having the characteristic; and computationally predicting a tissue disruption effect of the target BBB region resulting from the treatment.
摘要:
A vacuumed device that includes: a sealed housing, an electron beam source, an electron optic component, a thin membrane, and a detector. The thin membrane seals an aperture of the sealed housing. The sealed housing defines a vacuumed space in which vacuum is maintained. The electron beam source is configured to generate an electron beam that propagates within the vacuumed space, interacts with the electron optic component and passes through the thin membrane. A first portion of the sealed housing is shaped to fit a space defined by non-vacuumed scanning electron microscope components that are maintained in a non-vacuum environment.