Indicate whether to send a cookie in a cross-site request by specifying its SameSite attribute

时间: 2024-06-05 13:06:36 浏览: 65
As an AI language model, I cannot give an opinion. However, the statement is correct. The SameSite attribute is used to control whether a cookie should be sent with cross-site requests. When a cookie is marked with SameSite=None, it can be sent with cross-site requests. If SameSite is not specified or set to Strict or Lax, the cookie will not be sent with cross-site requests. This is a security measure to prevent cross-site request forgery (CSRF) attacks.
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百度地图Indicate whether to send a cookie in a cross-site request by specifying its SameSite attribute

Yes, Baidu Map can indicate whether to send a cookie in a cross-site request by specifying its SameSite attribute. SameSite is a cookie attribute that can be set to "Strict", "Lax", or "None". When set to "Strict", the cookie will only be sent in a first-party context, while when set to "Lax", the cookie may be sent in a limited set of cross-site contexts. When set to "None", the cookie may be sent in any context, including cross-site requests. Baidu Map can set the SameSite attribute on its cookies to control their behavior in cross-site requests.

% SolarCollector.m % ---------------------------------------------------------------------------------------------------------------------- % % Simple first-order solar collector model (M-file called by TRNSYS type 155) % % Data passed from / to TRNSYS % ---------------------------- % % trnTime (1x1) : simulation time % trnInfo (15x1) : TRNSYS info array % trnInputs (nIx1) : TRNSYS inputs % trnStartTime (1x1) : TRNSYS Simulation Start time % trnStopTime (1x1) : TRNSYS Simulation Stop time % trnTimeStep (1x1) : TRNSYS Simulation time step % mFileErrorCode (1x1) : Error code for this m-file. It is set to 1 by TRNSYS and the m-file should set it to 0 at the % end to indicate that the call was successful. Any non-zero value will stop the simulation % trnOutputs (nOx1) : TRNSYS outputs % % % Notes: % ------ % % You can use the values of trnInfo(7), trnInfo(8) and trnInfo(13) to identify the call (e.g. first iteration, etc.) % Real-time controllers (callingMode = 10) will only be called once per time step with trnInfo(13) = 1 (after convergence) % % The number of inputs is given by trnInfo(3) % The number of expected outputs is given by trnInfo(6) % WARNING: if multiple units of Type 155 are used, the variables passed from/to TRNSYS will be sized according to % the maximum required by all units. You should cope with that by only using the part of the arrays that is % really used by the current m-File. Example: use "nI = trnInfo(3); myInputs = trnInputs(1:nI);" % rather than "MyInputs = trnInputs;" % Please also note that all m-files share the same workspace in Matlab (they are "scripts", not "functions") so % variables like trnInfo, trnTime, etc. will be overwritten at each call. % % ---------------------------------------------------------------------------------------------------------------------- % This example implements a very simple solar collector model. The component is iterative (should be called at each % TRNSYS call) % % trnInputs % --------- % % trnInputs(1) : Ti, collector inlet temperature % trnInputs(2) : mdot, collector flowrate % trnInputs(3) : Tamb , ambient temperature % trnInputs(4) : Gt, solar radiation in the collector plane % % trnOutputs解释下这段代码

这段代码是一个简单的太阳能集热器模型,用于TRNSYS类型155的模拟。它通过接收和传递一些参数和数据来与TRNSYS交互。 以下是与TRNSYS交互的数据变量: - trnTime:模拟时间 - trnInfo:TRNSYS信息数组 - trnInputs:TRNSYS输入 - trnStartTime:TRNSYS模拟开始时间 - trnStopTime:TRNSYS模拟停止时间 - trnTimeStep:TRNSYS模拟时间步长 - mFileErrorCode:该m文件的错误代码。TRNSYS将其设置为1,m文件应将其设置为0以指示调用成功。任何非零值都将停止模拟。 - trnOutputs:TRNSYS输出 此外,代码中还有一些注释提供了一些说明和注意事项。例如,可以使用trnInfo(7)、trnInfo(8)和trnInfo(13)的值来识别调用的情况,也可以通过trnInfo(3)和trnInfo(6)来确定输入和输出的数量。 请注意,如果使用多个类型155的单元,则从/到TRNSYS传递的变量将根据所有单元的最大需求进行调整大小。因此,您应该仅使用当前m文件真正使用的数组部分。此外,请注意所有m文件在Matlab中共享同一工作空间(它们是“脚本”,而不是“函数”),因此变量如trnInfo、trnTime等在每次调用时都会被覆盖。 总体而言,这段代码实现了一个简单的太阳能集热器模型,应在每次TRNSYS调用时进行迭代。
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Solve the problem with c++ code, and give your code: Ack Country has N cities connected by M one-way channels. The cities occupied by the rebels are numbered 1, while the capital of Ack country is numbered N. In order to reduce the loss of effective force, you are permitted to use self-propelled bombers for this task. Any bomber enters the capital, your job is done. This seems simple enough, but the only difficulty is that many cities in Ack Country are covered by shields. If a city is protected by a shield, all shield generators that maintain the shield need to be destroyed before the bomber can enter or pass through the city. Fortunately, we know the cities where all the shield generators are located, and which cities' shields are being charged. If the bomber enters a city, all of its shield generators can be destroyed instantly. You can release any number of Bombermen and execute any command at the same time, but it takes time for bombermen to pass through the roads between cities. Please figure out how soon you can blow up Ack Nation's capital. The clock is ticking. Input: Two positive integers N,M in the first row. The next M lines, each with three positive integers, indicate that there is a road leading from the city to the city. It takes w time for the bomber to cross this road. Then N lines, each describing a city's shield. The first is a positive integer n, representing the number of shield generators that maintain shields in the city. Then n_i city numbers between 1 and N, indicating the location of each shield generator. In other words, if your bomber needs to enter the city, the bomber needs to enter all the entered cities in advance. If n_i=0, the city has no shields. Guarantee n_i=0.Output: a positive integer, the minimum time to blow up the capital. e.g., Input: 6 6 1 2 1 1 4 3 2 3 3 2 5 2 4 6 2 5 3 2 0 0 0 1 3 0 2 3 5, Output: 6.

完成以下Java代码:Write an IShape interface with the following UML specification: +------------------------------------+ | <<interface>> | | IShape | +------------------------------------+ | + getX(): int | | + getY(): int | | + setX(int x): void | | + setY(int y): void | | + isVisible(int w, int h): boolean | | + isIn(int x, int y): boolean | | + draw(Graphics g): void | +------------------------------------+ and a Shape class that implements IShape and has the following UML specification: +------------------------------------+ | Shape | +------------------------------------+ | - x: int | | - y: int | | - color: Color | +------------------------------------+ | + Shape(int x, int y) | | + getX(): int | | + getY(): int | | + setX(int x): void | | + setY(int y): void | | + isVisible(int w, int h): boolean | | + isIn(int x, int y): boolean | | + draw(Graphics g): void | | + testShape(): void | +------------------------------------+ The x and y instance variables indicate the position of the center of the shape, and the color instance variable indicates the color of the shape. The color of the shape is computed randomly in the constructor of the shape class and never changes after that, like this: color = new Color((float)Math.random(), (float)Math.random(), (float)Math.random()); The isVisible method is abstract, and indicates whether the shape is currently visible or not inside a window of width w and of height h. The isIn method is abstract, and indicates whether the point at coordinates (x, y) is currently inside the shape or not. The draw method simply changes the color of the graphics object g to be the correct color for the shape

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