Building A Stack for Your Business: 101

What does building a stack mean?

Building a stack refers to the process of selecting and integrating different software tools and technologies to create a customized software solution that meets your specific business needs.

1. Identify your business needs: The first step in building a stack is to identify your business needs. Determine what problems you are trying to solve and what goals you want to achieve.

2. Research available tools: Once you have identified your business needs, research different software tools and technologies that can help you meet those needs. Look for tools that are reputable, well-supported, and have a track record of success in your industry.

3. Evaluate tools: Evaluate the tools you have identified by looking at their features, pricing, ease of use, and compatibility with your existing systems. Consider factors such as scalability, security, and customization options.

4. Select tools: Based on your research and evaluation, select the tools that best meet your needs and fit within your budget. Make sure to consider how the different tools will work together and integrate with your existing systems.

5. Integrate tools: Once you have selected your tools, work on integrating them to create a seamless and cohesive software stack. This may involve customizing the tools, creating APIs, or developing other integration solutions.

6. Test and refine: After you have integrated your tools, test the stack to ensure it is working as expected. Refine the stack as necessary to optimize performance and ensure it is meeting your business needs.

7. Maintain and update: Finally, maintain and update your software stack over time to ensure it remains up-to-date and continues to meet your business needs. Keep an eye on emerging technologies and be willing to make changes as needed to stay competitive and efficient.

Level Up Your Resume: Become An Achiever!

Everyone writes about networking, researching, targeting companies, identifying the position or positions you want, and you should, it’s all important and solid advice, but there is more to the job hunt than that…

It’s not a difficult twist it’s just a shift in how your approach is.

Are you Endlessly sending an updated draft of your resume out for the 50 some-teenth time to the internet void, and that isn’t working?  I have had the same experience.  

Years ago it was easy, make a phone call, or send out a resume, interview, and hired.  Today – ummm not so much.

I had been very “busy” changing up my skills, key words, etc to “match” what the resume machine algorithms have been asked to search for (and will discard if your resume isn’t at least a 70% match).  It’s true, a human will NOT EVER see your resume because there’s a program that automatically eliminates you if you haven’t included the sought after key words.  Even worse, you could be algorithm’d out for 6-12 months for a “bad” resume submission. 

I had received NO answers back aside from the automated “thank you for applying”, with decades of experience in the industry.  Incredibly frustrating!  But, I needed to change the way I worded my resume.  I was being seen as a doer.  Isn’t that good though?  Again….Not so much.  Hiring Managers need to see not only what you’ve done, but what you’ve accomplished.  

I was qualified, I could do the jobs I applied for, even better, I actually WANTED the jobs I applied for, I wasn’t just “looking for work”,  I was looking for what I wanted in my life too.  I’ve been lucky to get to an ebb and flow now.

But, I needed to change the language in my resume to show that I still take / took action and that I’m results-oriented person (an over-utilized phrase x1000 btw).  But, follow a few simple steps to level-up your resume:

1. Focus on your achievements: Instead of just listing your responsibilities, highlight your accomplishments and the results you achieved. Use action verbs to describe your achievements and quantify your accomplishments with numbers and percentages.

2. Use strong, action-oriented language in your resume. Avoid passive voice and use verbs that convey a sense of action and accomplishment.

3. Tailor your language to the job posting: Look at the job posting and use language that aligns with the job requirements. Use similar keywords and phrases that the employer is looking for to convey that you have the skills and experience they are seeking.

4. Highlight your skills and how they have contributed to your accomplishments. Use specific examples to demonstrate how you have used your skills to achieve results.

5. Use bullet points to break up dense paragraphs and make your resume easier to read. Use short, punchy statements that highlight your accomplishments and results.

6. Proofread, Proofread, and Proofread again – did I mention Proofread your resume?  Oh yes I did!  Do this carefully to ensure that your language is clear, concise, and error-free. Make sure that your accomplishments and results are easy to understand and are presented in a way that is easy to read.

Overall, by focusing on your networking, your achievements, using strong language, tailoring your language to the job posting, highlighting your skills, using bullet points, and proofreading your resume, you can change the way you as a person appear to a Hiring Manager.  So make yourself human, because you are human.  Make them know you, even better make them WANT to know YOU!   You are your own business, you don’t have to sell yourself, just show the best version of You that you’ve got!  You’re worth it.

This can help you stand out to potential employers and increase your chances of getting hired.

Broadcasting: Mux or Demux? What The Heck Is That About?

In broadcasting, muxing and demuxing are essential processes that allow for the transmission and distribution of audio and video streams.

Muxing, or multiplexing, is the process of combining multiple audio and video streams into a single stream. This combined stream can be transmitted over a network or broadcast through traditional media channels like television or radio. Muxing is commonly used in live streaming, video editing, video conferencing, and IPTV.

A mux works by taking multiple input streams and interleaving them into a single output stream, which can be encoded and transmitted over a network using a specific protocol. The output stream is typically optimized for transmission efficiency, so that it can be transmitted with minimal delay and bandwidth requirements.

10 use cases for a mux:

1. Live streaming: A mux can be used to combine multiple live audio and video feeds into a single stream for real-time broadcast.

2. Video editing: A mux can be used to combine multiple video tracks into a single output file for editing or post-production.

3. Video surveillance: A mux can combine multiple video feeds from surveillance cameras into a single stream for monitoring and recording.

4. IPTV: A mux can be used by IPTV providers to combine multiple TV channels into a single stream for distribution over the internet.

5. VoIP: A mux can be used to combine multiple voice streams into a single output stream for voice over IP (VoIP) applications.

6. Music production: A mux can be used to combine multiple audio tracks into a single output file for music production or mixing.

7. Video conferencing: A mux can be used to combine multiple audio and video feeds from participants in a video conference into a single output stream.

8. Digital signage: A mux can be used to combine multiple video feeds for display on digital signage screens.

9. Sports broadcasting: A mux can be used to combine multiple audio and video feeds from different cameras and microphones at a sports event into a single broadcast stream.

10. Online gaming: A mux can be used to combine multiple audio and video streams from players in an online multiplayer game into a single stream for spectators to watch.

Conversely….

Demuxing, or demultiplexing, is the opposite process of separating the combined stream back into its individual audio and video streams. This allows for the decoding and processing of the individual streams separately. Demuxing is commonly used in media playback, video editing, audio processing, and network monitoring.

A demux works by analyzing the input stream and separating it into its constituent parts based on the underlying format and structure of the stream. The output streams can then be decoded or processed separately using appropriate software or hardware.

10 use cases for demuxing:

1. Media playback: A media player uses a demux to separate the audio and video tracks of a media file, so that they can be decoded and played back separately.

2. Video editing: A demux can be used to separate multiple video tracks from a single media file for editing or post-production.

3. Audio processing: A demux can be used to separate multiple audio tracks from a media file for processing or analysis.

4. Closed captioning: A demux can be used to separate the closed captioning data from a video file, so that it can be displayed separately.

5. Subtitles: A demux can be used to separate the subtitle data from a video file, so that it can be displayed separately.

6. Video transcoding: A demux can be used to separate the audio and video tracks of a media file for transcoding into a different format or resolution.

7. Network monitoring: A demux can be used to analyze network traffic and separate different types of data packets for monitoring or analysis.

8. Digital forensics: A demux can be used to extract individual files or data streams from a larger disk image or data file for forensic analysis.

9. Compression: A demux can be used to separate different data streams for compression or archiving purposes.

10. Streaming: A demux can be used to separate audio and video streams from a network broadcast for playback on different devices, or for further processing and analysis.

Both muxing and demuxing are critical processes in broadcasting that allow for efficient transmission and distribution of audio and video streams. These processes are used in a wide range of applications, from live sports broadcasting to online gaming, and are essential for ensuring high-quality audio and video transmission.

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USFL uses HRP Cameras, Drones, & Helmet Cams

The USFL (United States Football League) was a professional American football league that operated from 1983 to 1987. It was created to compete with the National Football League (NFL) during the spring and summer months.

The HRP (High-Resolution Panoramic) model is a type of camera that captures high-resolution panoramic images. It uses multiple cameras to capture a wide-angle view of a scene and then stitches the images together to create a seamless panoramic image.

Drones are unmanned aerial vehicles that can be used for a variety of purposes, including aerial photography and videography. They are equipped with cameras that can capture high-quality images and video footage from unique perspectives.

HelmetCams, also known as action cameras, are small cameras that can be attached to a helmet or other equipment to capture first-person point-of-view footage. They are often used in action sports such as snowboarding, skateboarding, and mountain biking.

Overall, these technologies have been used to enhance the viewing experience of sports broadcasts by providing unique and immersive perspectives on the action.

HRP (High-Resolution Panoramic) cameras are a type of camera that captures images with a wide field of view. They use multiple cameras to capture a scene from different angles and then stitch the images together to create a seamless panoramic image.

There are several manufacturers of HRP cameras, including Panoscan, Seitz, and Roundshot. Each manufacturer offers a variety of models with different resolutions and features. For example, the Seitz Roundshot D3 camera has a resolution of up to 80 megapixels and can capture full 360-degree panoramas in just a few seconds.

The process of stitching the images together is typically done using specialized software, such as PTGui or Autopano. These software programs use algorithms to analyze the images and find common features that can be used to align and blend the images together. The software can also correct for any distortion or perspective issues that may occur due to the different angles of the cameras.

Once the images are stitched together, they can be exported as a single panoramic image or as a virtual tour, which allows viewers to navigate through the scene using interactive controls. HRP cameras are often used in applications such as real estate photography, tourism, and virtual reality experiences, television broadcasts.

How is all of this technology used specifically in sports production broadcasts?

HRP cameras, drones, HelmetCams, and other similar technologies are used in sports production broadcasts to provide viewers with immersive and unique perspectives of the action.

HRP cameras are used to capture high-resolution panoramic images of stadiums and arenas, providing viewers with a 360-degree view of the venue. These images can be used for pre-game introductions, establishing shots, and post-game analysis. They can also be used to create virtual tours of the venue, allowing viewers to explore the stadium or arena in detail.

Drones are used to capture aerial footage of the action, providing viewers with a bird’s-eye view of the game. This footage can be used for replays, establishing shots, and highlights. Drones can also be used to capture footage of the surrounding area, giving viewers a sense of the location and atmosphere of the event.

HelmetCams are used to capture first-person point-of-view footage of athletes, providing viewers with a unique perspective of the action. This footage can be used for replays, highlights, and analysis. HelmetCams are often used in extreme sports such as snowboarding, skiing, and motocross.

Overall, these technologies are used to enhance the viewing experience of sports broadcasts, providing viewers with new and exciting perspectives of the action. The use of these technologies has become increasingly common in recent years, as broadcasters look for new ways to engage viewers and provide a more immersive viewing experience.

Overview: 30 Cloud Security Companies

Cloud security is a hot topic as streaming, processing, editing in the cloud is growing at a brakefast speed, not to leave out AI learning for meta data, closed captioning, transcribing, and DAI (Dynamic Ad Insertion). Keeping information secure is essential.

Below are 30 cloud security companies and the specific services they provide:

1. Microsoft Azure: Provides cloud security services such as identity and access management, threat protection, and security management.

2. Amazon Web Services (AWS): Offers security services such as identity and access management, data protection, network security, and compliance.

3. Google Cloud Platform (GCP): Provides security services such as identity and access management, data encryption, and threat detection.

4. Palo Alto Networks: Offers cloud security services such as firewalls, intrusion detection and prevention, and threat intelligence.

5. Symantec: Provides cloud security services such as data protection, threat detection, and compliance.

6. IBM Cloud: Offers security services such as access management, data protection, and threat intelligence.

7. Cisco Cloud Security: Provides cloud security services such as firewalls, intrusion detection and prevention, and threat intelligence.

8. McAfee: Offers cloud security services such as data protection, threat detection, and compliance.

9. CrowdStrike: Provides cloud security services such as endpoint protection, threat detection, and incident response.

10. Akamai Technologies: Offers cloud security services such as web application firewall, bot management, and DDoS protection.

11. Fortinet: Provides cloud security services such as firewalls, intrusion detection and prevention, and threat intelligence.

12. Check Point Software: Offers cloud security services such as firewalls, intrusion detection and prevention, and threat intelligence.

13. Trend Micro: Provides cloud security services such as data protection, threat detection, and compliance.

14. F5 Networks: Offers cloud security services such as web application firewall, bot management, and DDoS protection.

15. Zscaler: Provides cloud security services such as web security, DNS security, and cloud firewall.

16. Cloudflare: Offers cloud security services such as DDoS protection, web application firewall, and bot management.

17. Sophos: Provides cloud security services such as endpoint protection, email security, and web security.

18. Rapid7: Offers cloud security services such as vulnerability management, threat detection, and incident response.

19. Tenable: Provides cloud security services such as vulnerability management, threat detection, and compliance.

20. Alert Logic: Offers cloud security services such as intrusion detection and prevention, log management, and compliance.

21. Qualys: Provides cloud security services such as vulnerability management, threat detection, and compliance.

22. Carbon Black: Offers cloud security services such as endpoint protection, threat detection, and incident response.

23. Netskope: Provides cloud security services such as data loss prevention, web security, and cloud access security broker.

24. Bitdefender: Offers cloud security services such as endpoint protection, email security, and cloud security.

25. Barracuda Networks: Provides cloud security services such as email security, web security, and cloud security.

26. CipherCloud: Offers cloud security services such as data protection, threat detection, and compliance.

27. FireEye: Provides cloud security services such as threat intelligence, incident response, and forensics.

28. Imperva: Offers cloud security services such as web application firewall, bot management, and DDoS protection.

29. Qualys: Provides cloud security services such as vulnerability management, threat detection, and compliance.

30. Skyhigh Networks: Offers cloud security services such as cloud access security broker, data protection, and threat detection.

Overall, these cloud security companies provide a range of cloud security services, including identity and access management, data protection, threat detection, and compliance.

Top Live Broadcast Providers, Overview: CP Communications, NEP, Broadcast Solutions, Gearhouse Broadcast, & Gravity Media

There are Many Live Broadcast Event Companies out there, all with their own range of services.  Following is a short overview of some of them.  Feel Free to chime in with others…..

CP Communications is an audiovisual and live event production company that provides services for sports and entertainment events. They specialize in live event production, audio and video equipment rental, and staging and lighting design. The company offers a range of services, including:

1. Live event production – live event production services for sports, music, and entertainment events. This includes production planning, camera coverage, audio and video mixing, and on-site technical support.

2. Audio and video equipment rental -offers a range of audio and video equipment rental services, including cameras, microphones, speakers, and projectors. They also provide on-site technical support for equipment setup and operation.

3. Staging and lighting design – staging and lighting design services for live events, including custom stage design, lighting installation, and video projection mapping.

NEP Group is a leading provider of production services, engineering solutions, and media management for live sports and entertainment events worldwide. NEP Group provides a wide range of services, including:

1. Live event production – production services for sports, music, and entertainment events. This includes production planning, camera coverage, audio and video mixing, and on-site technical support.

2. Remote production – remote production services for sports events, allowing broadcasters to produce live events from a centralized location. This includes remote camera control, audio and video mixing, and on-site technical support.

3. Media management – media management services, including content storage, archiving, and distribution. This includes video editing, metadata tagging, and asset management.

4. Technical support – technical support services for audiovisual equipment and systems, including equipment rental, maintenance, and repair.

Broadcast Solutions is a global provider of production services and engineering solutions for sports, music, and entertainment events. The company offers a range of services, including live event production, remote production, and media management.

Gearhouse Broadcast is a global provider of production services and engineering solutions for sports, music, and entertainment events. The company offers a range of services, including live event production, remote production, and equipment rental.

Gravity Media is a global provider of production services and engineering solutions for sports, music, and entertainment events. The company offers a range of services, including live event production, remote production, and equipment rental. Gravity Media also provides specialized solutions for specific industries, such as esports and motorsports.

The differences between the above competitors include their range of services, geographic coverage, and industry specialization. It is recommended to evaluate the features, capabilities, and pricing of each provider before making a decision.

Wiki Collab

Wiki collaboration refers to a collaborative process of creating and editing content on a wiki platform. A wiki is a website or online platform that allows users to create and edit content collaboratively. Wiki collaboration can be used in a variety of contexts, including education, research, business, and community building.

Some of the benefits of wiki collaboration include:

1. Collaboration – Wikis promote collaboration among users by allowing them to work together to create and edit content.

2. Easy accessibility – Wikis can be accessed from anywhere with an internet connection, making it easy for users to contribute and access content.

3. Version control – Wikis typically offer version control, which allows users to track changes and revisions to the content.

4. Transparency – Wikis are transparent, meaning that all changes made to the content are visible to all users. This promotes accountability and encourages users to contribute responsibly.

5. Knowledge sharing – Wikis can be used to share knowledge and information with a community of users, which can be beneficial for education, research, and business purposes.

To collaborate on a wiki platform, users typically create an account and log in to access the content. They can then create and edit pages, add images and videos, and collaborate with other users. Some wiki platforms offer features such as discussion forums, chat rooms, and task management tools to help users collaborate more effectively.

There are various wiki platforms available, including:

1. Wikipedia – The world’s largest and most popular wiki platform, Wikipedia is a free encyclopedia that anyone can edit.

2. MediaWiki – An open-source wiki platform that powers Wikipedia and many other wikis.

3. Confluence – A wiki platform designed for business and team collaboration, Confluence offers features such as task management, calendars, and chat rooms.

4. Fandom – A wiki platform for fan communities, Fandom allows users to create and edit pages related to their favorite TV shows, movies, and other interests.

5. DokuWiki – An open-source wiki platform that is easy to use and highly customizable.

Overall, wiki collaboration can be a powerful tool for promoting collaboration, knowledge sharing, and community building. By allowing users to work together to create and edit content, wikis can facilitate the sharing of information and ideas across a wide range of contexts.

Quick Comparison of Broadcast Cellular Aggregators

Bonded cellular aggregators are devices that combine multiple cellular connections from different carriers into a single, more reliable and faster connection. This technology is commonly used in live video streaming, where a reliable and fast internet connection is crucial. Bonded cellular aggregators can also be used to improve internet connectivity in remote areas where traditional broadband connections are not available. The technology works by splitting the data stream into smaller packets and then sending those packets simultaneously over multiple cellular networks. The receiving device then combines the packets and reassembles them into a single data stream. This process helps to reduce latency and improve overall connection quality.

There are several companies that provide bonded cellular aggregators, including LiveU, TVU Networks, Mushroom Networks, Teradek, and Peplink. These companies offer a range of devices and solutions for different types of applications, from small portable units for on-the-go streaming to rack-mounted systems for studio production. Each company has its own unique features and capabilities, so it’s important to evaluate them based on your specific needs and requirements.

– LiveU is a leading provider of bonded cellular solutions for live video streaming/ broadcasting. Their products range from small backpack-sized units to larger rack-mounted systems. LiveU’s solutions are known for their reliability and high-quality video transmission. LiveU products are popular among broadcasters for their high reliability and ability to transmit high-quality live video from remote locations.

– TVU Networks is another popular provider of bonded cellular solutions for live video streaming. Their products include both portable and rack-mounted units, and they offer unique features like remote control and automation. TVU products are used by broadcasters to transmit live video from the field, and they offer features like remote control and automation to simplify the broadcasting workflow.

– Mushroom Networks provides a range of WAN aggregation solutions, including bonded cellular devices. Their products are designed to improve internet connectivity in remote areas and areas with poor infrastructure. Mushroom Networks provides bonded cellular solutions for broadcasting, with a focus on improving internet connectivity in remote areas. Their products are designed to help broadcasters transmit live video from areas with poor infrastructure or limited connectivity.

– Teradek is a provider of video encoding and transmission solutions, including bonded cellular devices. Teradek products range from small portable units to larger rack-mounted systems, and they offer features like wireless camera control and remote configuration. Teradek products are used by broadcasters to transmit high-quality live video from remote locations, and they offer features like wireless camera control and remote configuration.

– Peplink is a provider of SD-WAN and WAN aggregation solutions, including bonded cellular devices. Peplink products are designed for both business (broadcasting included)and consumer use and offer features like cloud-basedLO management and failover protection. Peplink provides bonded cellular solutions for broadcasting, with a focus on SD-WAN and WAN aggregation. Peplink products are designed to improve internet connectivity and network reliability for broadcasters, ensuring that live video broadcasts are transmitted smoothly and without interruption.

Each company has its strengths and weaknesses, and the best choice depends on the specific needs and requirements of the user.

Quick Overview: Checksum / How it’s Utilized & How to Use Them

A checksum is a value that is computed from a block of data using a specific algorithm. The purpose of a checksum is to provide a way to verify the integrity of the data. When a sender transmits data, it can compute a checksum and include it with the data. The receiver can then compute a checksum on the received data and compare it to the transmitted checksum. If the two values match, it is likely that the data was transmitted without errors.

Checksums are used in a variety of applications, including network protocols, file transfers, and software updates. They are particularly useful in situations where data corruption or errors are likely to occur, such as over unreliable network connections.

In network protocols, checksums are often used to detect errors in data packets. For example, the Mo of each IP packet. If the checksum indicates that the packet is corrupted, it can be discarded and a new packet can be requested.

In file transfers, checksums are used to verify that the file was transferred correctly. After a file is transferred, the sender can compute a checksum on the file and include it with the file. The recipient can then compute a checksum on the received file and compare it to the sender’s checksum. If the two values match, it is likely that the file was transferred without errors.

In software updates, checksums are used to verify that the update was downloaded correctly. After a software update is downloaded, the user can compute a checksum on the downloaded file and compare it to the checksum provided by the software vendor. If the two values match, it is likely that the update was downloaded correctly.

Overall, checksums are an important tool for ensuring the integrity of data in a variety of applications.

In broadcasting, checksums are often used in conjunction with SCTE markers to ensure the integrity of the video and audio streams. For example, SCTE-35 markers are used to signal ad insertion points in a video stream. When an ad break is signaled, the receiver can use a checksum to verify the integrity of the video data before and after the ad break. If the checksum indicates that the video data has been corrupted, the receiver can request a retransmission of the video data.

Similarly, checksums can be used to verify the integrity of audio data in a broadcast stream. For example, if an audio stream includes a checksum value, the receiver can use the checksum to verify that the audio data has not been corrupted during transmission.

Overall, checksums are an important tool for broadcasters to ensure the quality and integrity of their broadcast streams. By using checksums in conjunction with SCTE markers, broadcasters can provide a more reliable and consistent viewing experience for their audiences.

Quick Overview: API Calls-What Are They & What Is The Workflow?

API stands for Application Programming Interface. An API call is a request made by one software application to another application’s API in order to retrieve or manipulate data. APIs enable different software applications to communicate with each other, allowing developers to integrate different services and functionalities into their own applications.

API calls work by sending a request to the API, specifying the endpoint and any required parameters. The API processes the request and returns a response back to the calling application. The response can include data, metadata, or error messages, depending on the specific API.

APIs are used in a variety of applications, including web and mobile applications, IoT devices, and enterprise software. For example, social media platforms like Twitter and Facebook provide APIs that allow developers to access and manipulate user data, such as posts or tweets. E-commerce platforms like Shopify provide APIs that enable developers to build custom applications that interact with the platform’s inventory and customer data.

APIs are also used to integrate different software applications in enterprise settings. For example, an API can be used to connect a customer relationship management (CRM) system to a marketing automation platform, allowing marketing teams to access customer data and automate targeted campaigns.

Overall, APIs are a powerful tool for software developers, enabling them to build more complex and sophisticated applications by integrating different services and functionalities. Users can select GPT-3.5(ChatGPT) or GPT-4 to interact with me.

Building an API from scratch typically involves several steps. Here’s a general overview of the process:

1. Define the API endpoints: Determine the specific functionality and data that will be exposed through the API. This includes identifying the specific endpoints that will be used to access the data.

2. Choose a programming language: Select a programming language that is well-suited for building APIs, such as Python, Ruby, or Node.js.

3. Choose a web framework: Choose a web framework that supports building APIs, such as Flask, Django, or Express.

4. Design the API data model: Create a data model that defines the data that will be exchanged through the API, including the data types and relationships between different data entities.

5. Implement the API endpoints: Use the chosen web framework and programming language to implement the API endpoints, including handling request and response data.

6. Test the API: Use API testing tools to verify that the API endpoints are working as expected and returning the correct data.

7. Deploy the API: Deploy the API to a server or cloud hosting service so that it can be accessed by other applications.

8. Document the API: Create documentation that describes the API endpoints, parameters, and data structures so that other developers can use the API.

Overall, building an API from scratch can be a complex process that requires a solid understanding of programming, web frameworks, and data modeling. However, there are many resources available online that can help guide you through the process. Users can even utilize AI, ChatGPT 3.5/4 to assist the process.