Read more of this story at Slashdot.
Read more of this story at Slashdot.
Meta tags play a critical role in search engine optimization (SEO), providing search engines with essential information about a page’s content.
You can add meta tags to WordPress manually or with plugins. This guide explores both methods, and shares some best practices to maximize SEO impact.
Meta tags are snippets of HTML code that provide metadata about a webpage. Search engines and social media platforms use them to understand and display content appropriately. Some of the most important meta tags include:
Each of these meta tags contributes to improved search engine rankings and a better user experience.
Those who prefer a hands-on approach, you can manually add meta tags to WordPress with code. Note that you should always make changes using a child theme and have a full backup of your site on hand before editing your site code.
If you’re using a Classic theme, you can use the header.php file to add meta tags to your site. Simply follow these instructions:
<meta name="description" content="Your page description here"><meta name="robots" content="index, follow">

Instead of editing the header file directly, you can add meta tags by modifying the functions.php file.
function add_meta_tags() {Â Â Â Â echo '<meta name="description" content="' . get_the_excerpt() . '" />';}add_action('wp_head', 'add_meta_tags');
This method dynamically generates meta descriptions based on post excerpts.
SEO plugins greatly simplify the process of adding meta tags, provide additional functionality, and make sure that you’re implementing tags correctly. The top plugins for this purpose are Jetpack, Yoast SEO, and Rank Math.
Jetpack is a powerful WordPress plugin with tools for SEO, security, performance, growth, and more. Here’s how to use it to add meta tags to your WordPress site:

Once you’ve enabled this feature:

Jetpack also automatically adds structured meta tags, including Open Graph data, optimizing content for search engines and social media platforms.
Yoast SEO is an SEO plugin that includes advanced tools for optimizing your WordPress site. To add meta tags with Yoast on a global level:

To edit an individual piece of content:

Yoast SEO also includes meta robots settings, Open Graph tags, structured data support, and more.
Rank Math is similar to Yoast SEO, providing advanced SEO features and AI-based suggestions for meta descriptions. Here’s how to configure default meta tag settings with Rank Math:

To edit meta tags on an individual page/post basis:

To maximize SEO impact, follow these best practices when adding meta tags:
After implementing meta tags, track their impact using SEO tools like:
Adding and optimizing meta tags in WordPress is a critical part of SEO, enhancing search visibility and user engagement.
To further improve your SEO strategy, consider integrating Jetpack AI Assistant into your content creation workflow. This AI-powered tool, seamlessly embedded within the WordPress editor, offers a suite of features designed to streamline and elevate your content efforts.
Crafting precise and compelling meta tags is essential for SEO success. Jetpack AI Assistant simplifies this process by:
Beyond meta tags, Jetpack AI Assistant contributes to overall SEO by:
These features collectively enhance content quality, making it more appealing to both readers and search engines.
Jetpack AI Assistant integrates directly into the WordPress block editor, offering:
This seamless integration ensures that enhancing your SEO strategy with AI capabilities is both intuitive and efficient. Learn more about Jetpack AI Assistant here: https://jetpack.com/ai/

Software developers and end-users are often interested in understanding how to resolve incorrect detections from their antivirus/security software, including Microsoft Defender.
Such False Positives (FPs) can disrupt your use of your device by incorrectly blocking innocuous files or processes. However, you should take extreme care before concluding that a given detection is a false positive — attackers work hard to make their malicious files seem legitimate, and your security software is built by experts who work hard to flag only malicious files.
Every security product must perform the difficult task of maximizing true positives (protecting the user/device) while minimizing false negatives (protecting productivity/data). The resulting ratio is called security efficacy.
False-positives can occur for numerous reasons, but most are a result of security software observing what it deems to be suspicious content or behavior on the part of a file or process. Virtually all modern security software consists of a set of signatures and heuristics that attempt to detect indications of malice based on threat intelligence data collected and refined by threat researchers (both humans and automated agents). In some cases, the threat intelligence is scoped too broadly and incorrectly implicates harmless files along with harmful ones.
To correct this, the threat intelligence from your security vendor must be adjusted to narrow the detection so that it applies only to truly malicious files.
In some cases a security feature might block a file not as malicious but merely as uncommon; for example, SmartScreen Application Reputation can interrupt download or starting of an app if the app isn’t recognized:
In such cases, users may choose to ignore the risk and continue if they have good reason to believe that the file is malicious. Over time, files should build reputation (especially when signed, see below) and these warnings should subside for legitimate files.
Before submitting feedback, it’s probably worthwhile to first confirm what security product is triggering a block. In some cases, blocks that look like they may be coming from your security software might actually reflect intentional blocks from your network security administrator. For example, users of Microsoft Defender for Endpoint should review this handy step-by-step guide.
To get a broader security ecosystem view of whether a given file is malicious, you can check it at VirusTotal, a free service which will scan files against most of the world’s antivirus engines and which allows end-users to vote on the safety of a given file.
When a security vendor realizes a false positive has occurred, they will typically issue a signature update; while this typically happens entirely automatically, you might want to try updating your signatures just to ensure they’re current.
False positives (and false negatives) for Microsoft Defender Antivirus can be submitted to the Defender Security Intelligence Portal; these submissions will be evaluated by Microsoft Threat researchers and detections will be created or removed as appropriate. Other vendors typically offer similar feedback websites.
In most cases, users may override incorrect detections (if they are very sure they are false positives) using the Windows Security App to “Allow” the file or create an exclusion for its location.
If you build software, your best bet for avoiding incorrect detections is to ensure that your code’s good reputation is readily identifiable for each of your products’ files.
To that end, make sure that you follow Best Practices for code-signing, ensuring that every signable file has a valid signature from a certificate trusted by the Microsoft Trusted Root Program (e.g. Digicert, Azure Trusted Signing).
If your files are incorrectly blocked by Microsoft Defender, you can submit a report to the Defender Security Intelligence Portal.
-Eric
By guest blogger Saeid Dahl.
There comes a moment when numbers stop being just metrics and start telling a story. After more than 160 live sessions over the past two years, thousands of hours of shared learning, and a global audience that has grown to over 7,000 members and subscribers, we felt compelled to pause and reflect. During many of these sessions, speakers consistently highlighted the importance of Microsoft Learn and the Microsoft Heroes ecosystem, not as platforms, but as enablers of growth. Built with love by leaders who are MVPs, MCTs, Microsoft Learn Experts, and Microsoft Student Ambassadors, what began as a free space, and one committed to remain free forever, has evolved into a global movement driven by purpose, passion, and belief in people.
Microsoft Heroes began two years ago, born from the heart of Microsoft Learn and shaped by a simple but powerful belief: learning should inspire people, not just inform them. From the very beginning, we envisioned more than a traditional knowledge-sharing community. We wanted to create a space where stories, experiences, and shared journeys could spark confidence, curiosity, and growth in everyone who joined.
That belief resonated deeply. Speakers, experts, students, and passionate learners began to gather, not because they were asked to, but because they felt connected to the purpose. What started as a small, open initiative grew organically into a global movement, now followed by more than 7,000 community members worldwide. Week after week, without interruption, we hosted live sessions and welcomed voices from different cultures, backgrounds, and time zones. By embracing diversity and intentionally covering multiple regions, we ensured that no one was excluded and that learning truly belonged to everyone.
Over time, Microsoft Heroes became more than a platform. It became a family. A place where people celebrate each other’s achievements, amplify one another’s voices, and grow together. In the past year alone, 266 speakers expressed their desire to stand on the Microsoft Heroes stage, driven purely by passion. We proudly hosted 83 of them, each bringing unique perspectives and real-world experiences to our global audience.
Behind every session lies an intense yet rewarding journey. Planning monthly calendars, reviewing submissions, coordinating across time zones, promoting content, and hosting live sessions requires dedication and trust. None of this would be possible without a deeply committed team working together, not for recognition, but out of love for the community.
This spirit lives on through Microsoft NexGen Heroes, a program created for students and led by Microsoft Student Ambassador leaders. It exists to empower young voices and nurture the next generation of Microsoft community leaders, because every movement grows stronger when it invests in its future.
Throughout this journey, we learned that the most powerful form of learning is only possible when it is driven by passion. Real growth happens when people genuinely care, when they share their energy, support one another, and invest time in mentorship. This belief became the heartbeat of Microsoft Heroes.
Microsoft Heroes was never designed solely for professionals already deep into their careers. Through workshops and structured learning sessions, we intentionally supported those who were just beginning their journey, ensuring they had access to guidance, resources, and encouragement from day one. As a result, the impact extended far beyond attendance numbers.
We witnessed speakers earn titles such as Microsoft MVP and Microsoft Certified Trainer, with one or more of their community contributions rooted in Microsoft Heroes. Even within our leadership team, the ripple effect became visible, three new MVPs emerged after joining the community, and several Microsoft Student Ambassadors progressed to Gold status.
The greatest lesson we learned is that a community becomes powerful when energy flows freely, when people lift each other up without expectation. It is this shared passion and collective belief that continues to move Microsoft Heroes forward.
Communities like Microsoft Heroes remind us that growth is never a solo journey. Whether you are a student taking your first steps, a professional deep into your career, or a leader looking to give back, there is always a place for you to contribute, learn, and inspire. Share what you know. Mentor someone who needs guidance. Step onto the stage when the moment feels right. When we invest in each other, we create environments where everyone can rise.
Meet the MVPs involved in Microsoft Hero.
Learn more about Microsoft Hero and how to get involved.
touchRTL -v -R -l -y "directory name"
Usage: touchRTL [-aclmpRuvxy] [-r REFFILE | -d DATETIME] PATH...
UNIX touch mimic, updates files access, modification and creation times of file(s) in PATH to the current time,
If PATH argument does not exist, creates corresponding new empty file or directory (using -y), unless -c or --n
Supports directory recursion and time stamping!
Supports Right-to-Left (RTL) character removal for files.
PATH argument can represent a filename(s) or directory. Double quote if it contains spaces. eg "c:\as is.txt"
-a, --access-time change only the file access time
-c, --no-create do not create any new files - If the file exists, touch will update the access time,
-l, --RTL remove Unicode control & format characters (esp. infamous right-to-left) from filena
-m, --modif-time change only the file modification time
-p, --pause-exit pause on exit (non-GNU extra)
-R, --recursive recursively touch files in specified directory and all subdirectories (non-GNU extra
-u, --unicntrl remove Unicode control characters only - https://www.fileformat.info/info/unicode/ca
-v, --verbose output the result of every file processed (non-GNU extra)
-x, --creation-time change only the file creation time (non-GNU extra)
-y, --directory specify directory, instead of default file
-r, --reference REFFILE use this file's times instead of current time
-s, --spaces (PRO edtn) remove Unicode spaces from filename
-!, --puncs (PRO edtn) remove Unicode punctuations & symbols (math & modifiers) from filename
-d, --date DATETIME use YYYY-MM-DDThh:mm:ss[.ms] instead of current time (non-GNU, does not parse string
accepted "2033-04-01T07:07:07", "2033-04-01 07:07:07"
-h, --help Display this help and exit.
--version Display version information and license information.
For personal use only. Commercial license required for business use and removes page open. See --version for al
Copyright © 2019-2022 M. Pahulje <metadataconsult@gmail.com> - https://http://metadataconsulting.blogspot.com/Visualizing workflows, hierarchy or other figures is easy with the Blazor Diagram component. Learn how customize it for your app.
Creating diagrams in web applications becomes necessary for those that need to display hierarchical information or workflows. Therefore, it is essential that in the Blazor components ecosystem there are reliable solutions that allow creating them quickly, while also offering flexibility to customize them according to the tasks to be performed.
In this post, I will tell you about the new Progress Telerk UI for Blazor Diagram component, which allows you to create diagrams in a simple way.
The first step to be able to create diagrams in your application is to configure your project to work with the Telerik components, according to the Blazor components installation guides.
Once the project has been configured, you should use the tag TelerikDiagram, which will be the main container where the diagram will be rendered, and where you can configure parameters such as Height, Width, Zoom, ZoomRate, MinZoom and MaxZoom. An example of its usage is the following:
<TelerikDiagram Height="500px" Zoom="0.8">
</TelerikDiagram>
When you run the application, you will see the canvas when you click on it:

Once we have our main container, let’s see how to add figures to it.
To add shapes in Blazor, you should know some of the Shapes parameters:
Id: To identify the shapes and be able to relate themType: Indicates the shape typeWidth and Height: Specify the size in pixels, with the default value being 100.X and Y: Allow placing a shape at an exact position.Path: Allows specifying a custom shapeTo add Shapes to the diagram you must define the collection of shapes through the tag DiagramShapes, adding to the collection a set of elements DiagramShape, specifying the characteristics of each shape.
Since in our current example we have not defined a Diagram layout (which we will see later), we can use the parameters X and Y to define some positions, as shown below:
<TelerikDiagram Height="500px" Zoom="0.8">
<DiagramShapes>
<DiagramShape Id="shape1"
Type="@DiagramShapeType.Circle"
X="10" Y="10" />
<DiagramShape Id="shape2"
Type="@DiagramShapeType.Process"
X="100" Y="100" />
<DiagramShape Id="shape3"
Type="@DiagramShapeType.Document"
X="200" Y="200" />
<DiagramShape Id="shape4"
Type="@DiagramShapeType.Display"
X="300" Y="300" />
<DiagramShape Id="shape5"
Type="@DiagramShapeType.Merge"
X="400" Y="400" />
</DiagramShapes>
</TelerikDiagram>
In the previous code, you could see that DiagramShapeType is an enumeration with all the available shape types, which at the time of writing this article has 28 shapes available, including shapes of Image and Text. The previous code gives us the following rendering:

In the figure above, you can see that the shapes are displayed at the specified positions, and we can also move them as we wish.
A feature that diagram-type controls should undoubtedly have is connections between shapes. Although users can create these connections automatically, it is also possible to create them from code. For this, the tag DiagramConnections must be declared, which is a list that we must fill with tags of the type DiagramConnection, each of which can have the following parameters:
FromId and ToId: These are the identifiers that will relate the connectionType: Determines the type of connection (either DiagramConnectionType.Cascading or DiagramConnectionType.Polyline)Cap: Determines the type of cap that will appear on the figure (options: DiagramConnectionsEndCapType.ArrowEnd, DiagramConnectionsEndCapType.FilledCircle or DiagramConnectionsEndCapType.None)You can see an example of creating these relationships in the following example:
<TelerikDiagram Height="500px" Zoom="0.8">
...
<DiagramConnections>
<DiagramConnection
FromId="shape1"
ToId="shape2"
Type="DiagramConnectionType.Cascading" />
<DiagramConnection
FromId="shape2"
ToId="shape3"
Type="DiagramConnectionType.Polyline" />
<DiagramConnection
FromId="shape3"
ToId="shape4"
Type="DiagramConnectionType.Cascading" />
<DiagramConnection
FromId="shape4"
ToId="shape5"
Type="DiagramConnectionType.Polyline" />
</DiagramConnections>
</TelerikDiagram>
In the previous code you can see how I mixed the connection types, resulting in the following execution:

In addition to the previous parameters, it is also possible to define a Cap through the tags DiagramConnectionStartCap and DiagramConnectionEndCap, as well as a Selection Handle through the tag DiagramConnectionSelection. Below you can see an example of its configuration:
<TelerikDiagram Height="500px" Zoom="0.8">
...
<DiagramConnections>
<DiagramConnection FromId="shape1"
ToId="shape5"
Type="DiagramConnectionType.Cascading">
<DiagramConnectionEndCap Type="@DiagramConnectionsEndCapType.ArrowStart" />
<DiagramConnectionStartCap Type="@DiagramConnectionsStartCapType.FilledCircle" />
</DiagramConnection>
<DiagramConnection FromId="shape3"
ToId="shape4"
Type="DiagramConnectionType.Polyline">
<DiagramConnectionSelection>
<DiagramConnectionSelectionHandles Height="16" Width="16">
<DiagramConnectionSelectionHandlesFill Color="lime" />
<DiagramConnectionSelectionHandlesStroke Color="green" />
</DiagramConnectionSelectionHandles>
</DiagramConnectionSelection>
</DiagramConnection>
</DiagramConnections>
</TelerikDiagram>
Running the application gives us the following result:

In the previous image, you can notice the use of Cap on the line that goes from the circle shape to the triangle shape, while the Selection Handle is active when the relationship between the shapes Document and Display is selected.
Once we know the elements we can use in the Diagram component, it’s time to talk about the predefined Layouts you can use so you don’t have to manually arrange the shapes. There are three main Layouts:
To use one of these layouts, you must use the tag DiagramLayout specifying the type, and it is also recommended to remove the use of the parameters X and Y as shown below:
<TelerikDiagram Height="500px" Zoom="0.8">
<DiagramLayout Type="@DiagramLayoutType.Tree" />
<DiagramShapes>
<DiagramShape Id="shape1"/>
<DiagramShape Id="shape2"/>
<DiagramShape Id="shape3"/>
<DiagramShape Id="shape4"/>
<DiagramShape Id="shape5" />
<DiagramShape Id="shape6" />
</DiagramShapes>
<DiagramConnections>
<DiagramConnection FromId="shape1" ToId="shape2" />
<DiagramConnection FromId="shape1" ToId="shape3" />
<DiagramConnection FromId="shape3" ToId="shape4" />
<DiagramConnection FromId="shape4" ToId="shape5" />
<DiagramConnection FromId="shape2" ToId="shape6" />
</DiagramConnections>
</TelerikDiagram>
Aside from the main type for the layout, it is also possible, in the case of the Tree and Layered modes, to specify a Subtype.
For the Tree mode you can use the following values: Down, Left, MindMapHorizontal, MindMapVertical, Radial, Right, TipOver and Up.
For the Layered mode you can use the following values: Down, Left, Right and Up. An example of assigning the Subtype can be seen below:
<DiagramLayout Type="@DiagramLayoutType.Layered" Subtype="DiagramLayoutSubtype.Up"/>
In the following images I show an example of each layout type being rendered:



Another thing you’ll likely want to do when working with diagrams is use text in your diagrams. Let’s start by adding text to shapes. We can do this using the tag DiagramShapeContent, assigning the parameter Text, as shown below:
<DiagramShape Id="shape1">
<DiagramShapeContent Text="Shape with text" />
</DiagramShape>
The above will add text inside the shape to display it. We also have the shape Text, which has no border or background and occupies minimal space, and we must also use a DiagramShapeContent to define the text:
<DiagramShape Id="shape2" Type="DiagramShapeType.Text">
<DiagramShapeContent Text="Text Node" Color="black" />
</DiagramShape>
In addition to text on shapes, it’s also possible to add text on connections through the tag DiagramConnectionContent:
<DiagramConnection FromId="shape1" ToId="shape2">
<DiagramConnectionContent Text="1 to 2" />
</DiagramConnection>
The result of the previous examples gives us the following output:

These customization options are undoubtedly very useful when creating diagram-based applications.
Throughout this article you discovered the Diagram component for Telerik Blazor, which you have seen offers many customization options and flexibility to adapt it to your needs.
In this article, I covered the main features of the component, but you also have advanced customization options such as the definition of shapes and connections in JSON, adding styles for shapes and connections, as well as more complex customization through the use of Visual Function.
I invite you to try the component and explore its full potential in your own Blazor-based applications. Telerik UI for Blazor comes with a free 30-day trial.