Pulse Check Timer
A CPR Timing Application Built to Keep Emergency Responders Focused on the Patient, Not the Clock
Snapshot
Business Type
Clinical Support Software
Product Built
CPR protocol timing and documentation platform
Platforms
Flutter Mobile App
Standards Supported
American Heart Association (AHA) CPR Guidelines
Output Formats
PDF, DOCX
Status
Live in Production
The Business Challenge
- During cardiac arrest, seconds matter.
- CPR protocols exist because consistency saves lives.
- Yet in the middle of an active resuscitation, responders are expected to simultaneously:
- Deliver compressions
- Manage airway interventions
- Coordinate team communication
- Monitor patient response
- Track protocol timing
- Document rhythm changes
- The timer itself becomes another task competing for attention.
- Pulse Check Timer was created to remove that burden entirely.
- The objective was simple:
- Allow emergency responders to focus completely on the patient while the application handles timing, prompts, and documentation automatically.
What We Built
- Rather than building a stopwatch with extra buttons, we built a clinical workflow tool designed specifically around active cardiac arrest response.
- The application was built around one principle:
One tap should start the entire protocol.
- Everything after that should happen automatically.
CPR Session Engine
- The application manages complete resuscitation cycles in real time.
- The system automatically:
- Starts two-minute CPR cycles
- Triggers intervention prompts
- Tracks elapsed session time
- Maintains protocol sequencing
- Logs critical events
- Responders no longer need to watch a timer while managing a patient.
Core
Three architectural decisions defined the product.
AHA Guidelines as Product Specification
Clock-ins only count when performed within approved site boundaries.
The application follows:
- Two-minute CPR cycles
- Defibrillator preparation prompts
- Pulse check intervals
- Rhythm reassessment timing
The application was designed to support clinical protocol rather than asking clinicians to adapt to software behaviour.
One-Tap Operation Model
Emergency responders do not have spare attention.
The interaction model was intentionally constrained:
- One tap starts the cycle.
- Prompts occur automatically.
- Rhythm entries require minimal input.
- Reports generate automatically.
The responder interacts with the patient, not the software.
Offline Reliability
Emergency environments are unpredictable.
Connectivity cannot be assumed.
The platform operates fully offline with:
- Local session storage
- Offline event logging
- Automatic synchronization after reconnection
A clinical tool that fails without a signal is not a clinical tool.
The Solution
- The final product shipped as two tightly connected systems.
- Mobile Application
- Used by Guards and Supervisors in the field.
- Capabilities included:
- Geo-fenced clock-in and clock-out
- QR-based attendance verification
- Shift schedules
- Incident reporting
- Document uploads
- SOS emergency alerts
- Offline operation with automatic sync
Outcomes & Impact
REDUCTION IN PAPERWORK
0
%
ACTIVE FIELD OPERATIVES
0
+
ROLE-SPECIFIC INTERFACES
0
REAL-TIME GPS MONITORING
0
Live
OFFLINE SUPPORT
0
%
PRODUCTION DEPLOYMENT
0
Active
Management Dashboard
- Used by Managers and Administrators.
- Capabilities included:
- Live workforce visibility
- GPS monitoring
- Shift compliance tracking
- Attendance reporting
- Exemption approvals
- Payroll workflows
- Incident management
Engineering Excellence BehindOur
Every technology decision shapes your product’s future. We build mobile apps with proven frameworks and modern infrastructure that support performance today and growth tomorrow.
Outcomes
AHA-Compliant CPR Timing
Every cycle follows recommended protocol intervals automatically.
Zero Manual Timing
Responders no longer monitor clocks during active resuscitation.
Automatic Rhythm Documentation
Every event receives precise timestamps without additional workload.
Offline Clinical Reliability
The application remains fully operational without internet connectivity.
Production Deployment
The platform is actively used in live environments.
FAQs
How much does mobile app development cost?
Most mobile apps we build fall between $25,000 for a focused MVP and $180,000 or above for enterprise platforms with complex integrations and compliance requirements. The final number is scoped after a discovery session and fixed in writing before development begins; there are no ranges that shift mid-project.
How long does it take to build a mobile app?
Most MVPs take 2-3 months, while feature-rich or enterprise apps typically require 6 months or more. The timeline depends on the scope and technical complexity of your project.
Should I choose native or cross-platform app development?
It depends on your product goals, budget, and performance requirements. We’ll help you choose between iOS, Android, Flutter, React Native, or Kotlin Multiplatform based on what best fits your product.
Do you develop apps for both iOS and Android?
Yes. We build native apps for iOS and Android, along with cross-platform solutions using Flutter, React Native, and Kotlin Multiplatform.
Can you improve or modernize an existing mobile app?
Absolutely. We can redesign, optimize, and expand your existing app with improved performance, modern architecture, and new features without rebuilding everything from scratch.
Do you provide post-launch support?
Yes. We provide ongoing maintenance, performance monitoring, security updates, feature enhancements, and analytics to keep your app performing at its best.
How do you keep mobile apps secure?
We follow secure development practices, including encrypted data, secure authentication, regular testing, and compliance with standards like GDPR and HIPAA where required.
Why choose Inceptives Digital for mobile app development?
Because the same team that scopes your product builds it, tests it, and stays assigned after launch. No handoffs between strategy and engineering. No support queue after deployment. One accountable team from the first discovery session to the last release cycle, and a fixed cost agreed upon before the first sprint begins.
FAQ'S
Questions About System Integration & API Automation Services
What is system integration in software development?
System integration connects different applications, databases, and platforms so they can exchange data and work as a unified system.
What is API integration used for?
API integration enables direct communication between systems, allowing data to move automatically without manual transfer or duplication.
Which systems can be integrated?
CRM, ERP, SaaS tools, internal databases, cloud platforms, and third-party applications can all be connected through API-based integration.
How long does system integration take?
Timelines depend on system complexity, number of APIs, and data flow requirements. Most integrations take 3–8 weeks.
Can legacy systems be integrated with modern tools?
Yes. Legacy systems can be connected using middleware, API layers, or custom integration bridges.
What are the benefits of system integration?
It reduces manual work, improves data accuracy, enables real-time synchronization, and improves operational efficiency.
Is API integration secure?
Yes. Secure authentication methods, encryption, and controlled access layers are used to ensure safe data exchange between systems.
Do integrations require maintenance?
Yes. APIs and connected systems evolve, so ongoing monitoring and updates are needed to maintain stability and performance.