Technology Advice for Small Businesses

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Scaling Internet of Things networks with Infrastructure-as-Code

The Internet of Things (IoT) connects everyday devices to the web so they can share information and automate tasks. As businesses use more smart devices, managing these growing networks gets much harder. You need a reliable way to handle hundreds of connections without system crashes. Infrastructure-as-Code (IaC) offers an effective method to build and manage large IoT setups smoothly.

The hurdles of expanding IoT networks

IoT connects machines, sensors, and everyday objects to share data. You see these setups in smart homes, busy factories, and modern hospitals. Adding more devices means your network has to process much more information. Important services such as healthcare monitors and city power grids rely on these systems running perfectly around the clock.

Growing an IoT setup brings a few distinct challenges:

  • Network limits: Expanding your device count puts heavy pressure on your system. It becomes tough to maintain fast speeds and prevent data traffic jams.
  • Security risks: Every new smart device gives hackers another potential entry point into your system. You must add strong digital defenses to protect sensitive information.
  • Maintenance headaches: Managing the entire lifespan of your equipment takes a massive amount of time. IT teams have to set up, update, and eventually retire every single gadget manually.

A simpler path to growth

Instead of adjusting hardware and software by hand, IaC uses simple text files to build and manage your tech setup. This method automates the entire process of defining and deploying your servers, networks, and applications. IT teams use specialized tools to write instructions that tell the system exactly how to behave.

Automating your setup reduces human error and gets new tools running much faster. It ensures you use your computing power wisely.

IaC offers the following benefits:

  • Reliable setups: Automation removes the need for manual configuration and deployment. It guarantees your system looks exactly the same every single time.
  • Flexible resources: Your system can automatically add more computing power during busy times. It then scales back down when things get quiet.
  • Consistent rules: The code defines exactly how your network should operate, ensuring the system always matches those rules.
  • Stronger security: Writing security policies directly into your setup files automatically locks down your entire IoT network.
  • Easier updates: Managing a complex digital environment becomes incredibly straightforward. Your team can update hundreds of devices just by tweaking a few lines of text.

Everyday uses for Infrastructure-as-Code

Various industries use these tools daily. These examples show how powerful IaC can be in scaling IoT networks:

  • Smart cities: Local governments automate the controls for traffic lights and environmental monitors.
  • Factories: Manufacturing plants manage thousands of robotic arms and temperature sensors smoothly.
  • Hospitals: Medical staff track patient health remotely and dispense medication automatically.

Secure your network today

Connecting more IoT devices has turned into a necessity for modern businesses. Expanding your digital footprint requires careful planning and the right tools, so we recommend teaming up with an IT support provider who knows exactly how to handle these setups. If your technology keeps you up at night, we’ll help you get your time — and peace of mind — back. Reach out to our team today.

Simplifying Internet of Things expansion using Infrastructure-as-Code

The Internet of Things (IoT) makes it possible for everyday equipment to send and receive valuable data through the web. Growing these systems takes a lot of time, energy, and careful planning. Companies often run into speed limits and security risks as their device counts climb. Using Infrastructure-as-Code (IaC) makes expanding your network safe, fast, and completely manageable for your IT team.

The hurdles of expanding IoT networks

IoT connects machines, sensors, and everyday objects to share data. You see these setups in smart homes, busy factories, and modern hospitals. Adding more devices means your network has to process much more information. Important services such as healthcare monitors and city power grids rely on these systems running perfectly around the clock.

Growing an IoT setup brings a few distinct challenges:

  • Network limits: Expanding your device count puts heavy pressure on your system. It becomes tough to maintain fast speeds and prevent data traffic jams.
  • Security risks: Every new smart device gives hackers another potential entry point into your system. You must add strong digital defenses to protect sensitive information.
  • Maintenance headaches: Managing the entire lifespan of your equipment takes a massive amount of time. IT teams have to set up, update, and eventually retire every single gadget manually.

A simpler path to growth

Instead of adjusting hardware and software by hand, IaC uses simple text files to build and manage your tech setup. This method automates the entire process of defining and deploying your servers, networks, and applications. IT teams use specialized tools to write instructions that tell the system exactly how to behave.

Automating your setup reduces human error and gets new tools running much faster. It ensures you use your computing power wisely.

IaC offers the following benefits:

  • Reliable setups: Automation removes the need for manual configuration and deployment. It guarantees your system looks exactly the same every single time.
  • Flexible resources: Your system can automatically add more computing power during busy times. It then scales back down when things get quiet.
  • Consistent rules: The code defines exactly how your network should operate, ensuring the system always matches those rules.
  • Stronger security: Writing security policies directly into your setup files automatically locks down your entire IoT network.
  • Easier updates: Managing a complex digital environment becomes incredibly straightforward. Your team can update hundreds of devices just by tweaking a few lines of text.

Everyday uses for Infrastructure-as-Code

Various industries use these tools daily. These examples show how powerful IaC can be in scaling IoT networks:

  • Smart cities: Local governments automate the controls for traffic lights and environmental monitors.
  • Factories: Manufacturing plants manage thousands of robotic arms and temperature sensors smoothly.
  • Hospitals: Medical staff track patient health remotely and dispense medication automatically.

Secure your network today

Connecting more IoT devices has turned into a necessity for modern businesses. Expanding your digital footprint requires careful planning and the right tools, so we recommend teaming up with an IT support provider who knows exactly how to handle these setups. If your technology keeps you up at night, we’ll help you get your time — and peace of mind — back. Reach out to our team today.

How Infrastructure-as-Code helps grow your Internet of Things setup

Many businesses rely on the Internet of Things (IoT) to gather data and improve their daily operations. Connecting a few devices is easy, but adding hundreds of devices creates a massive management headache. Teams struggle to keep everything secure and running fast. Infrastructure-as-Code (IaC) solves growth problems through smart automation, allowing your business to expand without the growing pains.

The hurdles of expanding IoT networks

IoT connects machines, sensors, and everyday objects to share data. You see these setups in smart homes, busy factories, and modern hospitals. Adding more devices means your network has to process much more information. Important services such as healthcare monitors and city power grids rely on these systems running perfectly around the clock.

Growing an IoT setup brings a few distinct challenges:

  • Network limits: Expanding your device count puts heavy pressure on your system. It becomes tough to maintain fast speeds and prevent data traffic jams.
  • Security risks: Every new smart device gives hackers another potential entry point into your system. You must add strong digital defenses to protect sensitive information.
  • Maintenance headaches: Managing the entire lifespan of your equipment takes a massive amount of time. IT teams have to set up, update, and eventually retire every single gadget manually.

A simpler path to growth

Instead of adjusting hardware and software by hand, IaC uses simple text files to build and manage your tech setup. This method automates the entire process of defining and deploying your servers, networks, and applications. IT teams use specialized tools to write instructions that tell the system exactly how to behave.

Automating your setup reduces human error and gets new tools running much faster. It ensures you use your computing power wisely.

IaC offers the following benefits:

  • Reliable setups: Automation removes the need for manual configuration and deployment. It guarantees your system looks exactly the same every single time.
  • Flexible resources: Your system can automatically add more computing power during busy times. It then scales back down when things get quiet.
  • Consistent rules: The code defines exactly how your network should operate, ensuring the system always matches those rules.
  • Stronger security: Writing security policies directly into your setup files automatically locks down your entire IoT network.
  • Easier updates: Managing a complex digital environment becomes incredibly straightforward. Your team can update hundreds of devices just by tweaking a few lines of text.

Everyday uses for Infrastructure-as-Code

Various industries use these tools daily. These examples show how powerful IaC can be in scaling IoT networks:

  • Smart cities: Local governments automate the controls for traffic lights and environmental monitors.
  • Factories: Manufacturing plants manage thousands of robotic arms and temperature sensors smoothly.
  • Hospitals: Medical staff track patient health remotely and dispense medication automatically.

Secure your network today

Connecting more IoT devices has turned into a necessity for modern businesses. Expanding your digital footprint requires careful planning and the right tools, so we recommend teaming up with an IT support provider who knows exactly how to handle these setups. If your technology keeps you up at night, we’ll help you get your time — and peace of mind — back. Reach out to our team today.

The rising threat to patient data and what it means for PHI security

Healthcare continues to rank among the most targeted industries for cyberattacks, largely due to the value of protected health information (PHI), which includes any data tied to a patient’s identity and care. As threats continue to grow, stronger safeguards have become a necessity. Organizations need a clear plan to protect sensitive data at every stage. Below are key best practices to help secure PHI.

Map out where PHI lives and moves

Protecting PHI starts with knowing exactly where it exists and how it moves throughout an organization. Patient data is constantly in motion, captured during registration, updated during care, stored in digital systems, and shared with external partners such as labs or insurance providers. Each step in that journey introduces a new opportunity for something to go wrong.

Taking time to map these data flows can reveal hidden risks. For example, a clinic may discover that patient intake forms are scanned and emailed internally before being uploaded to a secure database. That email step, often overlooked, could become a weak link if left unprotected. Identifying these pathways helps close gaps that might otherwise go unnoticed.

Apply least privilege through role-based access

Not everyone in a healthcare setting needs the same level of access to patient information, and giving broad access can create unnecessary risk. A more controlled approach involves aligning data access with job responsibilities so employees only interact with what they genuinely need to do their work.

Role-based access control makes this easier to manage at scale. Instead of assigning permissions individually, access is grouped by role. Clinical staff might view treatment details, while billing teams focus strictly on financial data. This separation reduces accidental exposure and helps contain potential damage if an account is compromised, since the intruder would only be granted limited access rather than a full view of sensitive records.

Strengthen physical security measures

Even in highly digital environments, physical records and storage devices still play a role in handling PHI. Paper files, archived backups, and portable drives can all hold sensitive information, and they are often easier to access if not properly secured.

Simple measures such as locked filing systems and restricted storage areas can make a significant difference. Adding surveillance in archive rooms enhances accountability, making it easier to track who accessed what and when. When physical safeguards work alongside digital protections, they create a more robust and resilient security posture.

Encrypt data at rest and in transit

Encryption turns electronic PHI into an unreadable format that can only be decoded with the appropriate cryptographic key. This protects data even if unauthorized access occurs.There are two primary states where encryption should be applied: data at rest and data in transit. Data at rest includes information stored in databases, servers, or backup systems, while data in transit refers to information moving between devices, applications, or external partners.

For stored data, it’s recommended to use advanced encryption standards (e.g., AES-256) to ensure the strongest level of protection. It is especially vital for securing social security numbers, medical histories, and financial information.

As for data in transit, protocols such as Transport Layer Security (TLS) establish secure communication channels, preventing interception or tampering during transmission. For instance, when patient records are transmitted between a healthcare provider and a third-party billing platform, TLS encryption creates a secure “tunnel” that shields the data from exposure.

Implement robust network security controls

Network security serves as a barrier between internal systems and external threats. Firewalls, intrusion detection systems, and secure network configurations help monitor and control incoming and outgoing traffic.

Segmenting networks can further limit risk by isolating sensitive systems from general access areas. For example, separating clinical systems from guest Wi-Fi networks prevents unauthorized users from getting close to critical data environments. Regular vulnerability assessments and patch management also play a key role in maintaining a strong security posture.

Train employees to recognize and respond to threats

Every employee who interacts with PHI has some level of responsibility in keeping it safe. This is particularly important because human error (e.g., clicking a malicious link or mishandling data) remains one of the most common entry points for cyber incidents.

Ongoing training helps reduce that risk by building awareness around common threats and safe practices. Staff who can recognize suspicious emails, create strong passwords, and follow proper data handling procedures are far less likely to fall victim to attacks. When employees understand the real-world impact of a data breach, they become more attentive and proactive in protecting sensitive information.

Protecting PHI demands consistent attention across systems, processes, and people. Reach out to us today to explore tailored strategies that address your unique risks and operational needs.

Healthcare data under fire: Safeguarding PHI in a digital age

Healthcare organizations manage large volumes of protected health information (PHI), including medical records, insurance data, and treatment histories. The constant collection and exchange of this information makes them appealing targets for cybercriminals. Reducing that risk requires a more proactive and organized approach to security. The best practices below outline how to strengthen PHI protection.

Map out where PHI lives and moves

Protecting PHI starts with knowing exactly where it exists and how it moves throughout an organization. Patient data is constantly in motion, captured during registration, updated during care, stored in digital systems, and shared with external partners such as labs or insurance providers. Each step in that journey introduces a new opportunity for something to go wrong.

Taking time to map these data flows can reveal hidden risks. For example, a clinic may discover that patient intake forms are scanned and emailed internally before being uploaded to a secure database. That email step, often overlooked, could become a weak link if left unprotected. Identifying these pathways helps close gaps that might otherwise go unnoticed.

Apply least privilege through role-based access

Not everyone in a healthcare setting needs the same level of access to patient information, and giving broad access can create unnecessary risk. A more controlled approach involves aligning data access with job responsibilities so employees only interact with what they genuinely need to do their work.

Role-based access control makes this easier to manage at scale. Instead of assigning permissions individually, access is grouped by role. Clinical staff might view treatment details, while billing teams focus strictly on financial data. This separation reduces accidental exposure and helps contain potential damage if an account is compromised, since the intruder would only be granted limited access rather than a full view of sensitive records.

Strengthen physical security measures

Even in highly digital environments, physical records and storage devices still play a role in handling PHI. Paper files, archived backups, and portable drives can all hold sensitive information, and they are often easier to access if not properly secured.

Simple measures such as locked filing systems and restricted storage areas can make a significant difference. Adding surveillance in archive rooms enhances accountability, making it easier to track who accessed what and when. When physical safeguards work alongside digital protections, they create a more robust and resilient security posture.

Encrypt data at rest and in transit

Encryption turns electronic PHI into an unreadable format that can only be decoded with the appropriate cryptographic key. This protects data even if unauthorized access occurs.There are two primary states where encryption should be applied: data at rest and data in transit. Data at rest includes information stored in databases, servers, or backup systems, while data in transit refers to information moving between devices, applications, or external partners.

For stored data, it’s recommended to use advanced encryption standards (e.g., AES-256) to ensure the strongest level of protection. It is especially vital for securing social security numbers, medical histories, and financial information.

As for data in transit, protocols such as Transport Layer Security (TLS) establish secure communication channels, preventing interception or tampering during transmission. For instance, when patient records are transmitted between a healthcare provider and a third-party billing platform, TLS encryption creates a secure “tunnel” that shields the data from exposure.

Implement robust network security controls

Network security serves as a barrier between internal systems and external threats. Firewalls, intrusion detection systems, and secure network configurations help monitor and control incoming and outgoing traffic.

Segmenting networks can further limit risk by isolating sensitive systems from general access areas. For example, separating clinical systems from guest Wi-Fi networks prevents unauthorized users from getting close to critical data environments. Regular vulnerability assessments and patch management also play a key role in maintaining a strong security posture.

Train employees to recognize and respond to threats

Every employee who interacts with PHI has some level of responsibility in keeping it safe. This is particularly important because human error (e.g., clicking a malicious link or mishandling data) remains one of the most common entry points for cyber incidents.

Ongoing training helps reduce that risk by building awareness around common threats and safe practices. Staff who can recognize suspicious emails, create strong passwords, and follow proper data handling procedures are far less likely to fall victim to attacks. When employees understand the real-world impact of a data breach, they become more attentive and proactive in protecting sensitive information.

Protecting PHI demands consistent attention across systems, processes, and people. Reach out to us today to explore tailored strategies that address your unique risks and operational needs.

PHI security best practices for healthcare organizations

Patient confidentiality remains central to quality care and extends to protected health information (PHI), which includes data connected to a person’s medical history, treatment, or billing details. As healthcare environments become more digital, protecting PHI calls for more deliberate safeguards. A structured approach can help reduce risk and maintain trust. The following best practices highlight how organizations can better protect PHI.

Map out where PHI lives and moves

Protecting PHI starts with knowing exactly where it exists and how it moves throughout an organization. Patient data is constantly in motion, captured during registration, updated during care, stored in digital systems, and shared with external partners such as labs or insurance providers. Each step in that journey introduces a new opportunity for something to go wrong.

Taking time to map these data flows can reveal hidden risks. For example, a clinic may discover that patient intake forms are scanned and emailed internally before being uploaded to a secure database. That email step, often overlooked, could become a weak link if left unprotected. Identifying these pathways helps close gaps that might otherwise go unnoticed.

Apply least privilege through role-based access

Not everyone in a healthcare setting needs the same level of access to patient information, and giving broad access can create unnecessary risk. A more controlled approach involves aligning data access with job responsibilities so employees only interact with what they genuinely need to do their work.

Role-based access control makes this easier to manage at scale. Instead of assigning permissions individually, access is grouped by role. Clinical staff might view treatment details, while billing teams focus strictly on financial data. This separation reduces accidental exposure and helps contain potential damage if an account is compromised, since the intruder would only be granted limited access rather than a full view of sensitive records.

Strengthen physical security measures

Even in highly digital environments, physical records and storage devices still play a role in handling PHI. Paper files, archived backups, and portable drives can all hold sensitive information, and they are often easier to access if not properly secured.

Simple measures such as locked filing systems and restricted storage areas can make a significant difference. Adding surveillance in archive rooms enhances accountability, making it easier to track who accessed what and when. When physical safeguards work alongside digital protections, they create a more robust and resilient security posture.

Encrypt data at rest and in transit

Encryption turns electronic PHI into an unreadable format that can only be decoded with the appropriate cryptographic key. This protects data even if unauthorized access occurs.There are two primary states where encryption should be applied: data at rest and data in transit. Data at rest includes information stored in databases, servers, or backup systems, while data in transit refers to information moving between devices, applications, or external partners.

For stored data, it’s recommended to use advanced encryption standards (e.g., AES-256) to ensure the strongest level of protection. It is especially vital for securing social security numbers, medical histories, and financial information.

As for data in transit, protocols such as Transport Layer Security (TLS) establish secure communication channels, preventing interception or tampering during transmission. For instance, when patient records are transmitted between a healthcare provider and a third-party billing platform, TLS encryption creates a secure “tunnel” that shields the data from exposure.

Implement robust network security controls

Network security serves as a barrier between internal systems and external threats. Firewalls, intrusion detection systems, and secure network configurations help monitor and control incoming and outgoing traffic.

Segmenting networks can further limit risk by isolating sensitive systems from general access areas. For example, separating clinical systems from guest Wi-Fi networks prevents unauthorized users from getting close to critical data environments. Regular vulnerability assessments and patch management also play a key role in maintaining a strong security posture.

Train employees to recognize and respond to threats

Every employee who interacts with PHI has some level of responsibility in keeping it safe. This is particularly important because human error (e.g., clicking a malicious link or mishandling data) remains one of the most common entry points for cyber incidents.

Ongoing training helps reduce that risk by building awareness around common threats and safe practices. Staff who can recognize suspicious emails, create strong passwords, and follow proper data handling procedures are far less likely to fall victim to attacks. When employees understand the real-world impact of a data breach, they become more attentive and proactive in protecting sensitive information.

Protecting PHI demands consistent attention across systems, processes, and people. Reach out to us today to explore tailored strategies that address your unique risks and operational needs.

Modern password tips based on NIST guidelines

Passwords are an inherently flawed security measure in an era of constant phishing attacks and massive data leaks. This guide breaks down the latest recommendations from the National Institute of Standards and Technology (NIST) and shows how to improve security with longer passwords, smarter tools, and modern authentication methods.

Why should your business listen to NIST?

NIST is a US government agency that sets cybersecurity standards. Although originally created for federal agencies, its influence now extends to the private sector. Industries that handle sensitive data, such as healthcare, finance, and software, often adopt NIST guidelines because they are based on rigorous real-world testing and an understanding of human behavior.

In fact, many modern compliance frameworks, including HIPAA and SOC 2, now incorporate NIST’s approach to identity management, establishing its recommendations as the gold standard for any security-conscious business.

Outdated practices vs. new NIST standards

To strike a balance between security and ease of use, organizations must abandon old password policies and adopt NIST’s latest password security guidance.

Prioritize password length over complexity

One of the biggest changes in password security is the move from strict complexity rules. This means organizations no longer need to require combinations of uppercase letters, numbers, and symbols. The reason is simple: users find predictable ways to meet these rules (e.g., “Password123!”), making passwords incredibly easy to guess.

Length is now the most important factor in password security. Longer passwords are harder for cybercriminals to crack, even with powerful hardware. While NIST guidelines suggest a minimum of eight characters for standard accounts, security experts recommend 12 to 16 characters for a better balance of security and usability.

To support this shift, systems should now accommodate passwords up to 64 characters long, enabling users to create memorable passphrases. A passphrase, which is a string of unrelated words (e.g., “bluecoffeetrainsunset”), is now considered one of the most secure and user-friendly authentication methods. Because they are easier to remember and significantly harder to crack than short, complex passwords, passphrases offer superior security and convenience.

Furthermore, NIST now mandates that systems accept all printable ASCII characters, spaces, and Unicode symbols. This allows users to create longer, more memorable passphrases using native language characters or even emojis, which can also help reduce the frequency of password reset requests.

End forced password resets

Mandatory password changes every 60 or 90 days are an outdated practice. This policy often leads to security fatigue, prompting users to create weaker, more predictable passwords.

Instead, NIST now recommends a more practical approach:

  • Require password changes only when there’s evidence of a compromise.
  • Actively monitor accounts for suspicious activity.
  • Trigger password resets based on actual risk, not a fixed schedule.

Screen passwords and monitor for compromised credentials

Attackers often rely on leaked password lists rather than randomly guessing. That’s why the NIST recommends organizations do the following:

  • Block the use of common passwords (e.g., “123456”).
  • Prevent employees from using passwords exposed in past breaches.
  • Continuously monitor for exposed credentials.

Use password managers

Since every account needs a long, unique password, remembering them all is practically impossible. That’s why NIST highly recommends the use of password managers. These tools act as a secure digital vault, generating and autofilling strong passwords so your team doesn’t have to.

Beyond the password: MFA and biometrics

Passwords alone aren’t enough to ensure security. NIST recommends that when a password is required, it must be paired with an extra layer of verification:

Phishing-resistant MFA

Multifactor authentication (MFA) fortifies accounts by requiring more than just a password for account access. However, NIST now advises against using SMS text codes for MFA, as hackers can intercept these. Instead, they recommend using authenticator apps or hardware security keys (small USB tokens). With these methods, the “key” to your account remains securely on your physical device.

Safe and accurate biometrics

For biometric security such as facial recognition and fingerprint, NIST sets high standards for:

  • Accuracy: Systems must have a false match rate of less than 1 in 10,000 to ensure reliability.
  • Privacy: Your actual fingerprint or face image is never stored. Instead, the system generates a unique digital map (a template) and immediately deletes the original biometric data, protecting your identity.

Connect with our experts to bolster your cyber defenses against emerging threats and explore the future of password security.

Improving password security according to NIST

Still relying on traditional password policies like forced resets and complex character requirements? Those rules are outdated. It’s time to take a more modern approach with guidance from the National Institute of Standards and Technology (NIST), simplifying security without compromising protection.

Why should your business listen to NIST?

NIST is a US government agency that sets cybersecurity standards. Although originally created for federal agencies, its influence now extends to the private sector. Industries that handle sensitive data, such as healthcare, finance, and software, often adopt NIST guidelines because they are based on rigorous real-world testing and an understanding of human behavior.

In fact, many modern compliance frameworks, including HIPAA and SOC 2, now incorporate NIST’s approach to identity management, establishing its recommendations as the gold standard for any security-conscious business.

Outdated practices vs. new NIST standards

To strike a balance between security and ease of use, organizations must abandon old password policies and adopt NIST’s latest password security guidance.

Prioritize password length over complexity

One of the biggest changes in password security is the move from strict complexity rules. This means organizations no longer need to require combinations of uppercase letters, numbers, and symbols. The reason is simple: users find predictable ways to meet these rules (e.g., “Password123!”), making passwords incredibly easy to guess.

Length is now the most important factor in password security. Longer passwords are harder for cybercriminals to crack, even with powerful hardware. While NIST guidelines suggest a minimum of eight characters for standard accounts, security experts recommend 12 to 16 characters for a better balance of security and usability.

To support this shift, systems should now accommodate passwords up to 64 characters long, enabling users to create memorable passphrases. A passphrase, which is a string of unrelated words (e.g., “bluecoffeetrainsunset”), is now considered one of the most secure and user-friendly authentication methods. Because they are easier to remember and significantly harder to crack than short, complex passwords, passphrases offer superior security and convenience.

Furthermore, NIST now mandates that systems accept all printable ASCII characters, spaces, and Unicode symbols. This allows users to create longer, more memorable passphrases using native language characters or even emojis, which can also help reduce the frequency of password reset requests.

End forced password resets

Mandatory password changes every 60 or 90 days are an outdated practice. This policy often leads to security fatigue, prompting users to create weaker, more predictable passwords.

Instead, NIST now recommends a more practical approach:

  • Require password changes only when there’s evidence of a compromise.
  • Actively monitor accounts for suspicious activity.
  • Trigger password resets based on actual risk, not a fixed schedule.

Screen passwords and monitor for compromised credentials

Attackers often rely on leaked password lists rather than randomly guessing. That’s why the NIST recommends organizations do the following:

  • Block the use of common passwords (e.g., “123456”).
  • Prevent employees from using passwords exposed in past breaches.
  • Continuously monitor for exposed credentials.

Use password managers

Since every account needs a long, unique password, remembering them all is practically impossible. That’s why NIST highly recommends the use of password managers. These tools act as a secure digital vault, generating and autofilling strong passwords so your team doesn’t have to.

Beyond the password: MFA and biometrics

Passwords alone aren’t enough to ensure security. NIST recommends that when a password is required, it must be paired with an extra layer of verification:

Phishing-resistant MFA

Multifactor authentication (MFA) fortifies accounts by requiring more than just a password for account access. However, NIST now advises against using SMS text codes for MFA, as hackers can intercept these. Instead, they recommend using authenticator apps or hardware security keys (small USB tokens). With these methods, the “key” to your account remains securely on your physical device.

Safe and accurate biometrics

For biometric security such as facial recognition and fingerprint, NIST sets high standards for:

  • Accuracy: Systems must have a false match rate of less than 1 in 10,000 to ensure reliability.
  • Privacy: Your actual fingerprint or face image is never stored. Instead, the system generates a unique digital map (a template) and immediately deletes the original biometric data, protecting your identity.

Connect with our experts to bolster your cyber defenses against emerging threats and explore the future of password security.

Understanding NIST password guidelines

The National Institute of Standards and Technology (NIST) is changing how businesses approach password security. Learn how updated guidelines, focused on length, usability, and layered protection, can help safeguard accounts without introducing unnecessary complexity.

Why should your business listen to NIST?

NIST is a US government agency that sets cybersecurity standards. Although originally created for federal agencies, its influence now extends to the private sector. Industries that handle sensitive data, such as healthcare, finance, and software, often adopt NIST guidelines because they are based on rigorous real-world testing and an understanding of human behavior.

In fact, many modern compliance frameworks, including HIPAA and SOC 2, now incorporate NIST’s approach to identity management, establishing its recommendations as the gold standard for any security-conscious business.

Outdated practices vs. new NIST standards

To strike a balance between security and ease of use, organizations must abandon old password policies and adopt NIST’s latest password security guidance.

Prioritize password length over complexity

One of the biggest changes in password security is the move from strict complexity rules. This means organizations no longer need to require combinations of uppercase letters, numbers, and symbols. The reason is simple: users find predictable ways to meet these rules (e.g., “Password123!”), making passwords incredibly easy to guess.

Length is now the most important factor in password security. Longer passwords are harder for cybercriminals to crack, even with powerful hardware. While NIST guidelines suggest a minimum of eight characters for standard accounts, security experts recommend 12 to 16 characters for a better balance of security and usability.

To support this shift, systems should now accommodate passwords up to 64 characters long, enabling users to create memorable passphrases. A passphrase, which is a string of unrelated words (e.g., “bluecoffeetrainsunset”), is now considered one of the most secure and user-friendly authentication methods. Because they are easier to remember and significantly harder to crack than short, complex passwords, passphrases offer superior security and convenience.

Furthermore, NIST now mandates that systems accept all printable ASCII characters, spaces, and Unicode symbols. This allows users to create longer, more memorable passphrases using native language characters or even emojis, which can also help reduce the frequency of password reset requests.

End forced password resets

Mandatory password changes every 60 or 90 days are an outdated practice. This policy often leads to security fatigue, prompting users to create weaker, more predictable passwords.

Instead, NIST now recommends a more practical approach:

  • Require password changes only when there’s evidence of a compromise.
  • Actively monitor accounts for suspicious activity.
  • Trigger password resets based on actual risk, not a fixed schedule.

Screen passwords and monitor for compromised credentials

Attackers often rely on leaked password lists rather than randomly guessing. That’s why the NIST recommends organizations do the following:

  • Block the use of common passwords (e.g., “123456”).
  • Prevent employees from using passwords exposed in past breaches.
  • Continuously monitor for exposed credentials.

Use password managers

Since every account needs a long, unique password, remembering them all is practically impossible. That’s why NIST highly recommends the use of password managers. These tools act as a secure digital vault, generating and autofilling strong passwords so your team doesn’t have to.

Beyond the password: MFA and biometrics

Passwords alone aren’t enough to ensure security. NIST recommends that when a password is required, it must be paired with an extra layer of verification:

Phishing-resistant MFA

Multifactor authentication (MFA) fortifies accounts by requiring more than just a password for account access. However, NIST now advises against using SMS text codes for MFA, as hackers can intercept these. Instead, they recommend using authenticator apps or hardware security keys (small USB tokens). With these methods, the “key” to your account remains securely on your physical device.

Safe and accurate biometrics

For biometric security such as facial recognition and fingerprint, NIST sets high standards for:

  • Accuracy: Systems must have a false match rate of less than 1 in 10,000 to ensure reliability.
  • Privacy: Your actual fingerprint or face image is never stored. Instead, the system generates a unique digital map (a template) and immediately deletes the original biometric data, protecting your identity.

Connect with our experts to bolster your cyber defenses against emerging threats and explore the future of password security.

Smarter workstations, lower costs: Why businesses are going thin

From lower energy consumption to longer hardware lifespans, thin and zero clients are helping companies rethink their IT strategy. Discover how these streamlined devices can deliver big savings without compromising performance.

A different way to think about workstations

Traditional desktops are designed to handle everything locally. Processing, storage, and applications all happen on the machine sitting on your desk.

Thin clients flip that model. Instead of doing the heavy work themselves, they connect to a central server or cloud platform where applications and data live. The device acts more like a window into that environment rather than a fully independent system.

Zero clients take this concept even further. They strip away almost everything — no operating system, no local storage — leaving only what’s necessary to connect to a virtual desktop. The result is an ultra-simplified device that’s easy to deploy and manage.

Where the cost savings come from

Switching to thin or zero clients is about reducing several major expense categories at once.

1. Lower upfront hardware costs

Unlike traditional PCs, thin and zero clients don’t need powerful processors or large storage drives. That makes them significantly cheaper to purchase, especially when outfitting an entire office.

2. Reduced power consumption

Because most of the computing happens elsewhere, these devices use far less electricity. Over time, especially in larger organizations, that reduction can translate into noticeable savings on energy bills.

3. Easier IT management

Maintaining dozens (or hundreds) of PCs can quickly become overwhelming. With a centralized system, updates, patches, and software deployments happen in one place, rather than on every single device. That means less time spent on maintenance and fewer disruptions for employees.

Security gets a boost

Cost savings aside, security is another major advantage. Since data isn’t stored on the device itself, the risk of losing sensitive information due to theft or hardware failure drops significantly. Even if a device is compromised, there’s little to no data on it to exploit.

Zero clients, in particular, offer an added layer of protection because they don’t run a traditional operating system, eliminating many of the common entry points for malware.

Built to last longer

One of the hidden costs of traditional desktops is how quickly they become outdated. As software evolves, older machines struggle to keep up, forcing businesses into frequent upgrade cycles.

Thin and zero clients sidestep this issue. Because performance depends on the server or cloud infrastructure, you can upgrade your backend systems without replacing every device on the floor. That extends the lifespan of your hardware and reduces long-term spending.

Is it the right move for your business?

Thin and zero clients aren’t a one-size-fits-all solution, but for many businesses — especially those with standardized workflows — they offer a compelling mix of cost efficiency, security, and simplicity.

If your goal is to streamline IT operations while keeping expenses under control, it may be time to reconsider whether traditional desktops are still the best fit. Reach out to us to gain clarity about streamlining your desktop arrangement.