Fellows will receive API credits and other resources as appropriate, but will not have internal system access.
在AI安全领域,许多人认为要真正研究系统安全,必须获得对内部系统的完全访问权限。作者明确表示研究员将无法访问内部系统,这挑战了传统AI安全研究的假设,暗示OpenAI认为安全研究可以在没有完全系统访问的情况下进行,或者他们有其他方法来评估安全性。
Fellows will receive API credits and other resources as appropriate, but will not have internal system access.
在AI安全领域,许多人认为要真正研究系统安全,必须获得对内部系统的完全访问权限。作者明确表示研究员将无法访问内部系统,这挑战了传统AI安全研究的假设,暗示OpenAI认为安全研究可以在没有完全系统访问的情况下进行,或者他们有其他方法来评估安全性。
Access control works by registering the Pages daemon as an OAuth application with GitLab. Whenever a request to access a private Pages site is made by an unauthenticated user, the Pages daemon redirects the user to GitLab. If authentication is successful, the user is redirected back to Pages with a token, which is persisted in a cookie.
Using a property or a method to access the field enables you to maintain encapsulation, and fulfill the contract of the declaring class.
Exposing properties gives you a way to hide the implementation. It also allows you to change the implementation without changing the code that uses it (e.g. if you decide to change the way data are stored in the class)
Although it can minimize the overhead of third-party tags, it also makes it trivial for anyone with credentials to add costly tags.
What is a better name for this topic than "access control"?
In order to avoid the confused deputy problem, asubject must be careful to maintain the associationbetween each authority and its intended purpose. Using the key analogy, one could imagine immediatelyattaching a label to each key upon receiving it, wherethe label describes the purpose for which the key is tobe used. In order to know the purpose for a key, thesubject must understand the context in which the key is received; for example, labelling is not possible if keysmagically appear on the key ring without the subject’sknowledge.
Even if one can distinguish the keys, decidingto try all available keys puts one at risk of becoming aconfused deputy.
We would argue that the “true” capability model is the object-capability model, because all known major capability systems take the object-based approach (forexamples, see [1, 4, 9, 11, 16, 17, 19, 21]). In all ofthese systems, a capability is an object reference–not something that behaves like a key or ticket in the realworld. Definitive books on capability-based systems[6, 16] also describe these systems from the object-capability perspective, and explicitly characterize themas “object-based”.
The claim that capability systemsin general cannotenforce the *-Property appears to be based on themisunderstanding that capabilities and data are notdistinguishable.
Theonly capability Bob holds to a lower level is a readcapability, so the *-Property is enforced. The onlycapability Alice holds to a higher level is a writecapability, so the Simple Security Property is enforced
This paragraph would be clearer if the capabilities were written out fully:
The only capability Bob holds to a lower level is a "read data" capability, so the *-Property is enforced. The only capability Alice holds to a higher level is a "write data" capability, so the Simple Security Property is enforced.
Maybe. But it still seems confused. As though the properties are in the wrong sentences.
Nonetheless, both properties are enforced.
we examine three different models thathave been used to describe capabilities, and define a set of seven security properties that capture the distinctions among them