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The Late Gothic cross-window is known since the 14th century and replaced the hitherto common Romanesque or Gothic arched window on buildings. Since then the latter have almost exclusively been reserved for church buildings. The two, upper lights were usually somewhat smaller than the two lower ones and could be opened separately. The latter is also true for a transom window, which has a horizontal bar or transom separating the lights.
Characteristically the rectangular window is divided into four individual lights by a mullion and transom in the form of a Latin cross. The window cross was original made of stone ('stone cross-window'); not until the Renaissance and Baroque periods did the timber cross-window emerge (e. g. on the abbey castle of Escorial and on other buildings in the Herrerian style). Where the transom is in the middle, the window is divided into four lights of equal size. Later the windows were often divided into six lights, the two upper ones often being joined and forming a type of fanlight.
For UEFI-based PCs that support booting into either UEFI or legacy BIOS modes, make sure your PC is booted into the correct firmware mode before starting Windows Setup. Otherwise, Windows Setup may set up the hard drive partitions incorrectly, or may abort the installation if the hard drives are preconfigured. For more information, see WinPE: Boot in UEFI or legacy BIOS mode.
If a .wim file contains both 32-bit and 64-bit Windows editions, you must select the Windows image that you want to install. Typically, Windows Setup uses the product key that you specify in the ProductKey setting to determine which Windows image to install. But if the file contains 2 editions of the same Windows version, like Windows 8.1 Pro, you must use the MetaData setting in an answer file to specify the edition to install.
To choose an image, specify metadata that corresponds to the image index, name, description, or architecture type. For the metadata for architecture type, use 0 for 32-bit editions and 9 for 64-bit editions. For more info, see the MetaData Key setting.
The answer file must include processor-specific components. The answer-file settings in the windowsPE configuration pass must match the architecture type of the preinstallation environment. The settings that apply to the Windows image must match the architecture type of the image. For example, if you create an answer file that deploys 64-bit images from a 32-bit preinstallation environment, all components in the answer file for the windowsPE configuration pass must include the processor attribute type of x86. Settings to be applied in the specialize, oobeSystem, or other configuration passes must include the processor attribute type of amd64.
The window.postMessage() method safely enables cross-origin communication between Window objects; e.g., between a page and a pop-up that it spawned, or between a page and an iframe embedded within it.
Normally, scripts on different pages are allowed to access each other if and only if the pages they originate from share the same origin (also known as the "same-origin policy"). window.postMessage() provides a controlled mechanism to securely circumvent this restriction (if used properly).
Furthermore, an accessing script must have obtained the window object of the accessed document beforehand. This can occur through methods such as window.open() for popups or iframe.contentWindow for iframes.
Broadly, one window may obtain a reference to another (e.g., via targetWindow = window.opener), and then dispatch a MessageEvent on it with targetWindow.postMessage(). The receiving window is then free to handle this event as needed. The arguments passed to window.postMessage() (i.e., the "message") are exposed to the receiving window through the event object.
Data to be dispatched to the other window. The data is serialized using the structured clone algorithm. This means you can pass a broad variety of data objects safely to the destination window without having to serialize them yourself.
An optional object containing a transfer field with a sequence of transferable objects to transfer ownership of, and an optional targetOrigin field with a string which restricts the message to the intended target only.
Specifies what the origin of the intended recipient window's document must be for the event to be dispatched, either as the literal string "*" (indicating no preference) or as a URI. If at the time the event is scheduled to be dispatched the scheme, hostname, or port of this window's document does not match that provided in targetOrigin, the event will not be dispatched; only if all three match will the event be dispatched. This mechanism provides control over where messages are sent; for example, if postMessage() was used to transmit a password, it would be absolutely critical that this argument be a URI whose origin is the same as the intended receiver of the message containing the password, to prevent interception of the password by a malicious third party. Always provide a specific targetOrigin, not *, if you know where the other window's document should be located. Failing to provide a specific target could disclose the data you send to a malicious site.
The origin of the window that sent the message at the time postMessage was called. This string is the concatenation of the protocol and "://", the host name if one exists, and ":" followed by a port number if a port is present and differs from the default port for the given protocol. Examples of typical origins are (implying port 443), (implying port 80), and :8080. Note that this origin is not guaranteed to be the current or future origin of that window, which might have been navigated to a different location since postMessage was called.
If you do expect to receive messages from other sites, always verify the sender's identity using the origin and possibly source properties. Any window (including, for example, ) can send a message to any other window within the iframe hierarchy from top to every iframe below of the current document. Having verified identity, however, you still should always verify the syntax of the received message. Otherwise, a security hole in the site you trusted to send only trusted messages could then open a cross-site scripting hole in your site.
Always specify an exact target origin, not *, when you use postMessage to dispatch data to other windows. A malicious site can change the location of the window without your knowledge, and therefore it can intercept the data sent using postMessage.
Any script in a document in a window can request to let a message get dispatched to a document in another window whose window object it has obtained, by calling .postMessage() on that window object. Consequently, any event listener used to receive messages must first check the identity of the sender of the message, using the origin and possibly source properties. This cannot be overstated: Failure to check the origin and possibly source properties enables cross-site scripting attacks.
As with any asynchronously-dispatched script (timeouts, user-generated events), it is not possible for the caller of postMessage to detect when an event handler listening for events sent by postMessage throws an exception.
After postMessage() is called, the MessageEvent will be dispatched only after all pending execution contexts have finished. For example, if postMessage() is invoked in an event handler, that event handler will run to completion, as will any remaining handlers for that same event, before the MessageEvent is dispatched.
For IDN host names only, the value of the origin property is not consistently Unicode or punycode; for greatest compatibility check for both the IDN and punycode values when using this property if you expect messages from IDN sites. This value will eventually be consistently IDN, but for now you should handle both IDN and punycode forms.
window.postMessage is available to JavaScript running in chrome code (e.g., in extensions and privileged code), but the source property of the dispatched event is always null as a security restriction. (The other properties have their expected values.)
It is not possible for content or web context scripts to specify a targetOrigin to communicate directly with an extension (either the background script or a content script). Web or content scripts can use window.postMessage with a targetOrigin of "*" to broadcast to every listener, but this is discouraged, since an extension cannot be certain the origin of such messages, and other listeners (including those you do not control) can listen in.
Content scripts should use runtime.sendMessage to communicate with the background script. Web context scripts can use custom events to communicate with content scripts (with randomly generated event names, if needed, to prevent snooping from the guest page).
Lastly, dispatching a message to a page at a file: URL currently requires that the targetOrigin argument be "*". file:// cannot be used as a security restriction; this restriction may be modified in the future.
Normally, scripts on different pages are allowed to access each other if and only if the pages they originate from share the same origin (also known as the \"same-origin policy\"). window.postMessage() provides a controlled mechanism to securely circumvent this restriction (if used properly).
Broadly, one window may obtain a reference to another (e.g., via targetWindow = window.opener), and then dispatch a MessageEvent on it with targetWindow.postMessage(). The receiving window is then free to handle this event as needed. The arguments passed to window.postMessage() (i.e., the \"message\") are exposed to the receiving window through the event object.
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