
Most panic button systems are installed, tested, and then quietly become part of the building. Everyone assumes it will work the way it did on day one. A district safety director we work with put the stakes plainly: "we lost about 40 seconds in a very serious situation. And you just can't have that."
A panic button system is outdated when it cannot reach the right people quickly, cannot give responders the information they need, or cannot show you it is working before an emergency proves otherwise. Most organizations already have one. The question is whether it still holds up.
If your current system lands in the middle column more than once, keep reading.
A fixed panic button only protects the place where it is installed, and the people who need it rarely stay there. Teachers move between classrooms, facilities teams work across campus, security officers patrol lots and perimeters. If an incident happens in a hallway, stairwell, playground, or loading area, asking someone to reach a wall-mounted button first is not an emergency response.
Coram's wireless panic buttons trigger a discreet alert on two quick presses, with a flashing green light confirming activation. The two-press design is deliberate: it prevents pocket presses and accidental activations, which is what makes a wearable button practical to hand out at scale. Gateways relay those alerts across buildings and campuses.
If a panic alert reaches only one person, your response depends on that person making the next call. The alert lands at a monitoring company, a front desk, or a security office, and someone there notifies administrators, responders, and emergency services. Every extra call or radio message narrows the window. Speed is only half of it: responders also need to know what kind of emergency was triggered and where, which a phone call to a front desk does not carry.
Coram Emergency Management lets designated users report an emergency from a physical panic button or the mobile app, then broadcasts through email, SMS, and critical push notifications at once. Responders coordinate in a dedicated incident chat. A Call 911 button is available to users who hold that permission.
A system that depends on Wi-Fi, cellular coverage, or a staff member's unlocked personal phone has a reliability problem in its architecture. Stairwells, basements, parking structures, and the far corners of large campuses are where incidents happen and where wireless coverage is weakest. App-only systems add a second failure point: someone under stress may not have their phone out, may have it locked, or may have no signal.
Coram uses dedicated gateways to relay button signals, so the hop from button to gateway does not depend on Wi-Fi or cellular coverage inside the building. Be clear-eyed about the rest of the path: gateways are Power over Ethernet and relay to the cloud, so the downstream legs, email, SMS, push, and dispatch, still need internet. What the dedicated network buys you is a button that works in the dead zones where phones do not.
An alert that fires in isolation leaves responders knowing something happened, not what they are walking into. A panic system that is not connected to cameras forces someone to go find footage afterward. One that is not connected to access control means doors get locked individually while staff are already managing an incident. With Coram, lockdown is linked per emergency type and fires automatically on a real activation, alongside the nearest camera feed.
Detection can feed the same workflow. Where Coram cameras are deployed, a firearm detection surfaces to responders in the mobile app, and one tap escalates it into the same emergency workflow, lockdown included. It is a tap, not an automatic trigger, and today that escalation lives in the mobile app rather than the dashboard. Firearm Detection is the only detection type that escalates this way.
For the wider picture of how alerting, doors, and cameras fit together during a lockdown, see our guide to school lockdown security systems.
"Someone pressed a button" is not enough to act on. Older systems often identify only which device was activated. In a small office that works. On a campus, in a hospital, or across a multi-building site, responders lose time confirming where to go.
Demand specificity about what the alert actually carries. With Coram, an activation identifies the site and the person who triggered it, along with any context that person typed. Gateways have to be present and online in every area you want covered, which is a deployment requirement worth planning around rather than discovering later.
Be equally direct about what no vendor should be allowed to hand-wave. Live mapping that follows a moving activation around a building is a different capability from identifying where an alert came from, and Coram does not do it today. If your state requires critical incident mapping, ask every vendor to show it working rather than describe it.
Alyssa's Law has moved panic alerting from a recommended practice to a legal requirement in a growing number of states. As of 2026, 13 states have enacted it and roughly 18 more have legislation pending.
The requirement is not simply having a panic button. Most versions require a silent panic alarm capable of initiating a direct connection to emergency responders or the local Public Safety Answering Point (PSAP). A system that only notifies a monitoring company, a front desk, or an internal security team may not qualify.
Coram supports that path three ways:
One state-specific gap worth naming, because a Georgia district will find it anyway: Georgia's Ricky and Alyssa's Law also requires critical incident mapping, and Coram does not currently provide it.
On data handling, Coram is SOC 2 Type II audited and HIPAA compliant.
Before assuming an existing system complies, review the latest requirements for your state using the applicable legislation or an official government source. For districts pairing alerting with school security cameras, check how the two are expected to work together in your jurisdiction, because that varies too.
A system that has never been tested under realistic conditions is a system whose reliability is unknown. Misconfigured routing, failed integrations, and offline gateways stay invisible until an emergency exposes them. In many legacy systems the only way to run a test is to send a real alert and interrupt the school day, so testing gets postponed indefinitely.
Coram's Drill Mode runs the notification and coordination workflow without sending live alerts. Two constraints to plan around: drills run a minimum of 30 minutes, they are same-day only, and access control lockdown is deliberately skipped during a drill. That last one matters. If door lockdown is the capability you are buying, you need to verify it outside of drill mode. Our guide to school emergency drills covers how to structure the rest of the exercise.
Device health is the quieter half. Coram emails an alert when a gateway goes offline or a button's battery drops below five percent, once per event, with the exact level visible in the dashboard. Problems surface before an emergency finds them.
The signs tell you whether your current system is falling behind. These questions tell you whether a specific replacement fixes it. Ask every vendor, including us.
Coverage wherever staff work
Integration with cameras and access control
What the alert actually carries
Simultaneous alerting
Device health monitoring
Drill and testing
Alignment with a recognized response standard
Constraints you should surface before signing
If a vendor cannot demonstrate those capabilities in your building, assume the system will not do them in an emergency either.
Most districts do not have a line item waiting for this. Three paths get used: state Alyssa's Law appropriations where they exist, school safety grant programs, and the next bond cycle. Which one applies changes the timeline more than the product choice does, so raise it with your safety committee and business office before you pick a vendor. One rural customer's constraint captures why this rarely stays theoretical: "This little town has no emergency services. So if you call 911, it takes 20, 30 minutes for anybody to get here."
Most organizations do not replace a panic button system because it stopped working. They replace it because it no longer matches how their people work or how emergencies get managed now.
Coram is an AI physical security platform that brings Video Security, Access Control, Emergency Management, and Guest Management together. For panic alerting, that means the button, the camera on that hallway, and the doors around it are one workflow instead of three procurements.
One honest note on fit: Coram buttons and gateways replace your existing panic hardware rather than overlaying it. Where Coram does sit alongside what you run is mass notification. If your district uses Rave, Everbridge, InformaCast, or Alertus, CAP webhooks let Coram push into it rather than replace it.
If several of these signs sound familiar, start by checking your own state's current silent panic alarm requirements against what your system does today. Then ask your incumbent vendor the questions above. If you want a second opinion on the answers, talk to our team about your setup.
A designated user triggers an alert with a deliberate action, such as two quick presses on a physical button or an activation in a mobile app. The alert routes to predefined responders with information about the emergency and where it came from.
It depends on the system and how it is configured. Some include a direct dispatch workflow or a Call 911 option for authorized users; others rely on staff or a monitoring center to make the call. Verify how emergency services are notified, and whether that capability is on by default or enabled on request, before selecting a system.
A wired system is fixed in place and connected by cabling, which suits entry points and reception desks. A wireless system lets users carry the device and call for help from wherever an incident happens. Where staff move between buildings, wireless covers more of the real risk.
Not all of them. Some depend on Wi-Fi or cellular; others use dedicated gateways to relay alerts inside the building. Ask specifically which legs of the path depend on which network, because the button-to-gateway hop and the outbound notification usually do not run on the same infrastructure.
In many installations, yes. Panic buttons typically operate independently of whether an intrusion alarm is armed. The exact behavior depends on configuration, so confirm it with the manufacturer or integrator.
Not automatically. It depends on whether the system satisfies the specific requirements in the state where it is deployed. Those may include silent alerting, a direct connection to emergency responders or 911, and in Georgia, critical incident mapping. Verify against the applicable state legislation.
Cost depends on user count, facility size, hardware, gateway coverage, integrations, and deployment complexity. Beyond hardware, budget for installation, licensing, and maintenance. Seat count surprises people most often, because anyone who needs to receive alerts usually needs a seat.

