Unlike other software that only simulate a brightness change by adding a black overlay over your screen,Lunar uses DDC (Display Data Channel)to send commands like set brightness to 30% or switch input to HDMI 2 directly to the monitor.
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If you use a Mac Mini, a MacBook with the lid closed, or even a Hackintosh, Lunar can automatically adapt your monitors' brightness and contrast based on readings from an external ambient light sensor.
Press Control+Command+5 or use the Lunar menu to activate FaceLight and Lunar will increase the active monitor's brightness and contrast to maximum and place a warm-white overlay on top of your screen.
This doesn't change the hardware brightness as DDC does, so you have to manually set the monitor's brightness and contrast (using the monitor physical buttons) to the highest possible values that look good for your monitor.
Wow, I just upgraded macbook pro 2019 to big sur without knowing this issue. And now I experienced the same. And I am surprised that this issue is already 7 months old and not been resolved by Apple. As the others, I am frustrated too. Now I cannot use my external monitor anymore. It's hard to work now.
Same issue for me - I have a docking station that was previously recognised no worries by my macbook and would allow me to charge and connect to external monitors. Since the Big Sur update, neither of my USB-C ports recognise the docking station, and one of them doesn't work for anything at all :(
Same here the monitor keep black screen after I plug-in the USB-CMy devices include: M1 MBP13 + DELL WD15 + DELL P2419H.The solution for my case is to close the monitor, then re-open it and wait for 1 mins, I tried some times and so far it works 100%.
Desktop applications that are system DPI aware typically receive the DPI of the primary connected monitor as of the time of user sign-in. During initialization, they lay out their UI appropriately (sizing controls, choosing font sizes, loading assets, etc.) using that System DPI value. As such, System DPI-aware applications are not DPI scaled (bitmap stretched) by Windows on displays rendering at that single DPI. When the application is moved to a display with a different scale factor, or if the display scale factor otherwise changes, Windows will bitmap scale the application's windows, making them appear blurry. Effectively, System DPI-aware desktop applications only render crisply at a single display scale factor, becoming blurry whenever the DPI changes.
It is recommended that desktop applications be updated to use per-monitor DPI awareness mode, allowing them to immediately render correctly whenever the DPI changes. When an application reports to Windows that it wants to run in this mode, Windows will not bitmap stretch the application when the DPI changes, instead sending WM_DPICHANGED to the application window. It is then the complete responsibility of the application to handle resizing itself for the new DPI. Most UI frameworks used by desktop applications (Windows common controls (comctl32), Windows Forms, Windows Presentation Framework, etc.) do not support automatic DPI scaling, requiring developers to resize and reposition the contents of their windows themselves.
Most desktop applications run under system DPI awareness mode. System-DPI-aware applications typically scale to the DPI of the primary display (the display that the system tray was located on at the time the Windows session was started). When the DPI changes, Windows will bitmap stretch the UI of these applications, which often results in them being blurry. When updating a System DPI-aware application to become per-monitor-DPI aware, the code which handles UI layout needs to be updated such that it is performed not only during application initialization, but also whenever a DPI change notification (WM_DPICHANGED in the case of Win32) is received. This typically involves revisiting any assumptions in the code that the UI only needs to be scaled once.
When updating an application to support per-monitor DPI awareness, it can sometimes become impractical or impossible to update every window in the application in one go. This can simply be due to the time and effort required to update and test all UI, or because you do not own all of the UI code that you need to run (if your application perhaps loads third-party UI). In these situations, Windows offers a way to ease into the world of per-monitor awareness by letting you run some of your application windows (top-level only) in their original DPI-awareness mode while you focus your time and energy updating the more important parts of your UI.
Below is an illustration of what this could look like: you update your main application UI ("Main Window" in the illustration) to run with per-monitor DPI awareness while you run other windows in their existing mode ("Secondary Window").
After you have updated your application to become per-monitor DPI aware, it is important to validate your application properly responds to DPI changes in a mixed-DPI environment. Some specifics to test include:
iStatistica Sensors Plug-in enables temperature and fan speeds monitoring. Keep an eye on CPU, GPU, memory temperature, observe fan speeds (rpm) and get hdd disk IO statistics with mac system monitor. Sensors Plug-in helps iStatistica being the most advanced system monitor on the App Store.
SQL Monitor supports monitoring Windows failover clusters. You will need one license for each node in a monitored cluster. Other proprietary clustering server systems aren't supported, and might not behave as expected.
With complete support for SQL Server hosted on Virtual Machines, Azure SQL Databases, Google Cloud, and Amazon RDS or EC2, you can monitor on-premises, virtual machines, elastic pools, and Managed Instances all within the same dashboard.
Flexible recording features provide high-quality continuous or motion-triggered recording, while emails, notifications and alarms can also be triggered by motion detection. Remote monitoring features allow you to view and manage your system from anywhere in the world.
Baseboard Management Controllers (BMCs) are a type of embedded computer used to provide out-of-band monitoring for desktops and servers. These products are sold under many brand names, including HP iLO, Dell DRAC, Sun ILOM, Fujitsu iRMC, IBM IMM, and Supermicro IPMI. BMCs are often implemented as embedded ARM systems, running Linux and connected directly to the southbridge of the host system's motherboard. Network access is obtained either via 'sideband' access to an existing network card or through a dedicated interface. In addition to being built-in to various motherboards, BMCs are also sold as pluggable modules and PCI cards. Nearly all servers and workstations ship with or support some form of BMC. The Intelligent Platform Management Interface (IPMI) is a collection of specifications that define communication protocols for talking both across a local bus as well as the network. This specification is managed by Intel and currently comes in two flavors, version 1.5 and version 2.0. The primary goal of Dan Farmer's research was on the security of the IPMI network protocol that uses UDP port 623. A diagram of the how the BMC interfaces with the system is shown below (CC-SA-3.0 (C) U. Vezzani).
BMCs are often under appreciated and overlooked during security audits. Like many embedded devices, they tend to respond slowly to tests and have a few non-standard network services in addition to web-based management. The difference between a BMC and say, a printer, is what you get access to once it has been successfully compromised. The BMC has direct access to the motherboard of its host system. This provides the ability to monitor, reboot, and reinstall the host server, with many systems providing interactive KVM access and support for virtual media. In essence, access to the BMC is effectively physical access to the host system. If an attacker can not only login to the BMC, but gain root access to it as well, they may be able to directly access the i2c bus and Super I/O chip of the host system. Bad news indeed.
In the example above, the module was able to identify two valid user accounts (root and blank), retrieve the hmac-sha1 password hashes for these accounts, and automatically crack them using an internal wordlist. If a database is connected, Metasploit will automatically store the hashed and clear-text version of these credentials for future use. If a user's password is not found in the local dictionary of common passwords, an external password cracking program can be employed to quickly brute force possible options. The example below demonstrates how to write out John the Ripper and Hashcat compatible files.
Thanks to atom, the main developer of Hashcat, version 0.46 or above now supports cracking RAKP hashes. It is worth noting that atom added support for RAKP within 2 hours of receiving the feature request! In the example below, we use hashcat with RAKP mode (7300) to brute force all four-character passwords within a few seconds.
API Monitor is a free software that lets you monitor and control API calls made by applications and services. Its a powerful tool for seeing how applications and services work or for tracking down problems that you have in your own applications.
DisplayFusion will make your multi-monitor life much easier! With powerful features like Multi-Monitor Taskbars, TitleBar Buttons and fully customizable HotKeys, DisplayFusion will make managing your multiple monitors easy.
Allows setting the target white point locus to the equivalent of a daylight or black body spectrum of the given temperature in degrees Kelvin, or as chromaticity co-ordinates. By default the white point target will be the native white of the display, and it's color temperature and delta E to the daylight spectrum locus will be shown during monitor adjustment, and adjustments will be recommended to put the display white point directly on the Daylight locus. If a daylight color temperature is given, then this will become the target of the adjustment, and the recommended adjustments will be those needed to make the monitor white point meet the target. Typical values might be 5000 for matching printed output, or 6500, which gives a brighter, bluer look. A white point temperature different to that native to the display may limit the maximum brightness possible. 2ff7e9595c
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