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IT Guide for Opening a New Radiology Practice

Planning IT for new radiology practices in Australia: infrastructure, RIS and PACS, redundancy, cabling, HL7 messaging, compliance, and vendor management.

Introduction

Launching a radiology practice requires strategic planning, especially regarding IT infrastructure. This guide provides essential insights into building a reliable, cost-effective, and scalable IT environment, helping practice owners avoid costly mistakes and unreliable solutions.

Table of Contents

IT Infrastructure Planning

Radiology Practices as Technology Businesses

Radiology practices do far more than capture images, they are, in essence, technology businesses. If core systems fail or networks go down, patients and radiologists lose the ability to generate timely and accurate diagnostic outcomes. Despite the central role of technology, many new practices open with only basic routers and switches, lacking essential security measures and network redundancy. This not only jeopardizes compliance with patient data protection laws but also risks interrupting critical services.

Yet the technology mandate for radiology goes far beyond simply having servers and switches. Modern imaging requires consistent workflows to handle large data sets, secure systems to protect sensitive health information, and often remote or cloud-based capabilities to enable teleradiology. As such, robust IT infrastructure, and the strategies to sustain it, forms the backbone of reliable patient care, physician collaboration, and operational efficiency.

Key Considerations for Reliable Operations

Redundant Internet Connectivity:

Having only one internet path (e.g., a single provider) can halt operations if it goes down. Loss of connectivity disrupts:

  • Sending patient results via secure messaging (e.g., HealthLink or MedicalObjects)
  • Making phone calls, vital when administering contrast and contacting emergency services
  • Access to cloud-based RIS and PACS, delaying remote reporting of studies
  • Medicare card validation and claim submissions
  • Remote access for referring physicians

A common best practice is to use a primary high-bandwidth fiber line (e.g., 1000/1000 Mbps for around $599/month) paired with a secondary backup service like NBN (e.g., 100/40 Mbps for about $90/month).

Hardware Redundancy:

Implementing dual connectivity providers (e.g., fiber and NBN from separate companies) protects against an outage on one network or technology. Alongside multiple internet lines, dual firewalls/routers and dual network switches are equally important:

  • If a primary firewall fails, the secondary takes over
  • If one switch dies, half the clinic (e.g., reception, modalities, wireless access points) can still run on the second switch

Network Segmentation:

Practices should adopt managed switches to create VLANs that isolate each modality type or software vendor. Only essential traffic is permitted between segments, reducing security vulnerabilities and performance bottlenecks.

Vendor and Partner Management:

Since radiology practices rely on multiple technology vendors, RIS/PACS providers, telecom carriers, hardware manufacturers, and support services, effective vendor coordination is crucial. Reviewing service-level agreements (SLAs), ensuring timely support, and confirming that each partner meets regulatory compliance requirements all contribute to smoother operations.

Staff Training and Cybersecurity:

The human factor remains a significant vulnerability in any IT environment. Ongoing staff training on cybersecurity best practices, data handling, and contingency procedures helps prevent breaches and enables quick, coordinated responses to system disruptions.

Expanding the Concept: Radiology as a Technology Business

Teleradiology and Distributed Workflows

Many radiology practices now depend on off-site radiologists or specialized teleradiology providers for reading and reporting. This expands service coverage (e.g., after-hours), but demands high-speed, secure network access for large image files.

Advanced Imaging Modalities and AI/ML

As imaging grows more sophisticated, like high-resolution MRI or AI-driven diagnostics, practices need infrastructure that can handle large data volumes and real-time processing without impacting clinical workflows.

Integrated Data Analytics and Business Intelligence

Analytics tools can deliver insights on modality usage, reading turnaround times, and referrer trends. This helps in refining workflows, managing resources, and making strategic decisions about expansion or new service lines.

People, Processes, and Change Management

Technology is only as effective as the people and processes surrounding it. Practices should build feedback loops with radiologists, technologists, and front-desk staff to address workflow bottlenecks, plus ongoing training on new systems or protocols.

Compliance and Security

Radiology data is governed by strict privacy regulations. Systems must encrypt data at rest and in transit, maintain audit logs, and remain resilient against threats like ransomware, especially since downtime could compromise patient care.

By recognizing the operational and patient-care implications of technology downtime, radiology practices can prioritize robust infrastructure from the outset. With the right network, hardware redundancy, and security protocols in place, and by managing vendor relationships and staff readiness, practices can better ensure uninterrupted patient services and secure handling of sensitive data.

Cloud vs. On-Premise Solutions

Radiology practices are the backbone of modern diagnostic medicine, relying heavily on specialized IT infrastructures to deliver accurate and efficient imaging services. Central to these operations are robust systems like the Radiology Information System (RIS) and the Picture Archiving and Communication System (PACS). These systems not only streamline workflows but also ensure compliance with stringent regulatory standards and facilitate superior patient care.

Choosing between cloud-based and on-premise deployments is a pivotal decision that carries long-term implications for a practice’s financial health, operational efficiency, and technological adaptability.

1. On-Premise Solutions

1.1 Overview

On-premise solutions involve hosting critical IT systems, such as RIS and PACS, within the physical premises of a radiology practice. This approach provides full control over hardware and software, allowing for extensive customization. However, it also demands significant investment in infrastructure, maintenance, and technical expertise.

1.2 Advantages

  • Full Control and Sovereignty: Radiology practices retain complete authority over their IT infrastructure, enabling fine-tuned configurations tailored to specific clinical workflows and operational requirements. Data security protocols are fully under the practice’s governance, ensuring compliance with privacy regulations such as the Australian Privacy Principles (APPs).
  • Regulatory Assurance: On-premise setups simplify adherence to medical device regulations, such as deploying PACS on TGA-approved hardware, a requirement critical for compliance in Australia.
  • Enhanced Customization: Practices can optimize hardware configurations for high-performance imaging, enabling seamless integration with advanced modalities and bespoke clinical tools.
  • Strategic Hardware Placement: Ownership of hardware enables practices to strategically position servers in high-demand areas within their facilities, optimizing connectivity and system performance. For practices with multiple imaging modalities, local hardware placement minimizes latency and ensures rapid image processing.

1.3 Challenges

  • High Initial Capital Investment: Substantial upfront costs are required for purchasing servers, storage solutions, and virtualization technologies like VMware. Ancillary infrastructure, including large uninterruptible power supplies (UPS) and climate control systems, further inflates expenses.
  • Infrastructure Maintenance: Elevated power demands necessitate reliable UPS systems and ongoing cooling solutions, which may include running air conditioning outside regular operating hours.
  • Limited Disaster Recovery: Establishing robust disaster recovery capabilities necessitates the deployment of redundant servers across multiple locations, which is often cost-prohibitive for smaller practices. Recovery operations are heavily reliant on sufficient bandwidth, which may cause delays during data restoration.
  • Lifecycle Costs and Hardware Management: Standard hardware warranties are typically capped at five years. Extending warranties or replacing hardware incurs significant costs. Data migration and reconfiguration during hardware upgrades disrupt operations and require skilled technical resources.
  • Support Constraints: Even with premier support contracts, such as Dell or HP’s 4-hour response guarantees, actual resolution times may not align with clinical operational needs. Internal expertise or external technical support is indispensable for managing maintenance and troubleshooting.
  • Software Licensing Overheads: Implementing high-availability configurations often requires elevated licensing fees, with scalability constrained unless additional investments are made.

2. Cloud Solutions

2.1 Overview

Cloud-based solutions leverage enterprise-grade data centers to host RIS and PACS systems, offering unparalleled scalability, resilience, and operational efficiency. This approach minimizes the complexity of IT management, allowing practices to concentrate on delivering patient-centric care.

2.2 Advantages

  • Predictable Cost Structure: Transitioning to a subscription-based model eliminates capital expenses for hardware acquisition, providing financial predictability. Maintenance costs, including hardware replacements and upgrades, are absorbed by the service provider.
  • Unmatched High Availability: Cloud platforms integrate multi-regional redundancy and failover mechanisms, ensuring uninterrupted service even in the event of localized disruptions. Faster disaster recovery capabilities significantly reduce downtime compared to traditional on-premise setups.
  • Data Center Expertise: Professional-grade facilities offer fully redundant power, cooling, and connectivity, enhancing system reliability and performance. High-bandwidth connectivity ensures seamless clinical and referrer experiences, enabling rapid image access and reporting.
  • Streamlined IT Management: Routine tasks such as operating system upgrades, system monitoring, and hardware provisioning are managed by the provider, reducing administrative overheads. Practices can focus on expanding clinical services without the burden of IT management.
  • Effortless Scalability: Cloud environments support dynamic scaling, enabling practices to expand storage and computing resources as needed without additional infrastructure investments.

2.3 Challenges

  • Dependence on Internet Connectivity: Reliable, high-speed internet access is crucial for maintaining uninterrupted cloud operations. Connectivity issues can temporarily hinder system access.
  • Vendor Lock-In Risks: Transitioning between providers or migrating data may present logistical challenges and incur additional costs.
  • Regulatory and Security Concerns: Although leading cloud providers often exceed baseline compliance standards, practices must ensure adherence to jurisdiction-specific data sovereignty and privacy regulations. Ongoing validation of provider certifications is necessary to maintain compliance.

3. Comparative Analysis

ParameterOn-PremiseCloud
Initial InvestmentHigh upfront capital requirementsSubscription-based operational model
Maintenance RequirementsInternal or third-party expertise neededFully managed by provider
ScalabilityLimited by hardware resourcesVirtually unlimited
Disaster RecoveryCostly and complex to implementIntrinsic to architecture
Compliance ControlFull internal governanceRelies on provider adherence
Hardware ManagementReplacement every 5+ yearsNot applicable
Performance ReliabilityDependent on local conditionsGuaranteed through professional infrastructure
Internet DependencyMinimalEssential

4. Decision-Making Framework

  1. Evaluate Financial Readiness: Assess the availability of capital for upfront investments versus tolerance for ongoing operational expenses.
  2. Regulatory and Compliance Alignment: Ensure that the chosen solution meets all relevant regulatory standards, such as TGA compliance for PACS.
  3. Growth and Scalability Needs: Anticipate future expansion requirements, including additional imaging modalities or clinic locations.
  4. Disaster Recovery and Continuity Planning: Consider the criticality of uptime and the relative ease of implementing robust recovery measures in each model.
  5. Technical Resource Availability: Evaluate the availability of skilled personnel to manage on-premise systems or oversee vendor relationships for cloud deployments.
  6. Connectivity Reliability: Confirm that local internet infrastructure can support the bandwidth and reliability requirements of a cloud-based solution.

5. Conclusion

Choosing between cloud and on-premise solutions for radiology IT is a nuanced decision influenced by financial, operational, and compliance considerations. On-premise systems offer unparalleled control and bespoke customization, making them ideal for practices prioritizing regulatory oversight and data sovereignty. Conversely, cloud solutions provide unmatched scalability, reliability, and cost efficiency, positioning them as a forward-thinking choice for modern radiology practices. By aligning their decision with strategic objectives and available resources, radiology professionals can ensure sustained operational success.

Practice IT Design Considerations

An IT environment tailored to radiology’s high-volume imaging and strict compliance requirements underpins the success of any modern radiology practice, supporting seamless patient care, regulatory compliance, and steady operational growth.

At a Glance Summary

  1. Data Ports & Connectivity: Provide multiple outlets at every workstation and imaging modality for maximum flexibility and performance.
  2. Wi-Fi & Networking: Plan coverage scientifically, ensuring redundancy, secure SSIDs, and role-based access.
  3. Cable Management & Labelling: Use shielded Cat6/6A cabling, test thoroughly, and document meticulously to prevent downtime.
  4. Server Room & Power: Invest in UPS systems, dedicated circuits, and robust cooling solutions to sustain high availability.
  5. Clinical Workstations & Ergonomics: Deploy suitable hardware (e.g., AIOs or HP Z-series) and plan for comfortable, efficient use.
  6. Security & Access Control: Segment networks, enforce role-based access, and integrate building management and surveillance systems.
  7. Common/Waiting Areas: Adopt commercial-grade displays, well-planned audio, and digital signage for a streamlined patient experience.
  8. Additional Considerations: Include telehealth stations, IP telephony, staff training, and breakout areas for continuous workflow improvements.

Data Ports to Each Terminal

  • Scalability and Expansion: Provide sufficient Cat6a outlets at every station to accommodate new modalities (e.g., upgrading ultrasound units to MRI) or adding extra staff. Keeping spare ports helps you scale quickly without major re-cabling or downtime, avoiding unnecessary expense.
  • Identification and Troubleshooting: Use color-coding or labeling on wall plates and patch panels to accelerate issue resolution.

PC Terminals

  • Two Cat6a outlets per PC station (data + phone/VoIP).
  • Position data/power outlets under counters, with cable trays minimizing clutter.
  • Create holes in countertops for discreet cable routing and enhanced ergonomics.
  • Scanner Dimensions: Reception desks must accommodate wide monitors plus top-fed scanners.
  • Wireless Headsets: Allocate a power outlet for docking/charging.
  • Wired Peripherals: For reliability and reduced interference, use wired keyboards/mice for administrative tasks.
  • All-in-One (AIO) Computers: Save desk/floor space and reduce clutter.
  • Reporting Workstations: HP Z-series (dual HDD: OS + PACS) for high-performance reading due to proven reliability and mission-critical support for imaging workflows. Other enterprise-grade vendors (e.g., Dell Precision) can match performance with high-quality components and dual-drive setups.

Modality Terminals

  • Two Cat6a outlets per modality (one for PACS and one for vendor updates or support).

Photocopiers

  • Two Cat6a data connections (photocopier + ATA fax).
  • Physical Layout: Ensure enough clearance for refill trays and maintenance. Plan routes to reduce staff congestion.

EFTPOS Terminals

  • Centralize EFTPOS in reception, with at least one data port and one GPO.

Wireless Access Points (WAPs)

  • Reserve dedicated data ports and position them for even coverage. Include extras for future expansions.

Cabling Standards

In Australia, data cabling work must be performed by a registered cabler, as mandated by the Australian Communications and Media Authority (ACMA) under the Telecommunications Cabling Provider Rules. This ensures compliance with safety, performance, and regulatory standards. A data cabling license is distinct from an electrician’s license and must be obtained separately by professionals installing structured cabling.

Cabling Registration and LAN Environments

A Local Area Network (LAN) is an internal network within a business or commercial property, facilitating communication between computers, servers, VoIP phones, wireless access points, and other networked devices. While LAN cabling primarily operates privately, specific cabling regulations still apply, particularly when connecting to external services.

When is ACMA Registration Required?

  • Public Telecommunications Network Connection: If LAN cabling connects to an NBN, Telstra, or other external service provider, it must be installed by a registered cabler. This applies to Cat 5, Cat 6, Cat 6A, and fibre optic networks in commercial buildings.
  • Internal LAN Exemptions: If the cabling remains fully self-contained within a LAN and does not connect to a public telecommunications network, ACMA registration may not be required. However, adherence to AS/CA S009:2020 (Customer Cabling Installation Rules) is still recommended for safety and performance.
  • Structured Cabling for Commercial Buildings: LAN installations in new commercial properties should follow TIA/EIA-568 and ISO/IEC 11801 structured cabling standards, incorporating proper cable pathways, network segmentation, and rack/server room layouts for scalability.

Cabling Standards for LANs in Commercial Properties

For commercial LAN installations, the following best practices ensure a stable, high-performance network:

  • Separation from Electrical Wiring: Maintain at least a 300 mm separation from power cables to reduce electromagnetic interference (EMI), following AS/CA S009:2020.
  • Patch Panel and Rack Installations: Use structured cable management with patch panels and labeled ports for ease of maintenance and future scalability.
  • Mandatory Testing and Certification: LAN cabling must be tested with a certified cable tester to verify continuity, resistance, and attenuation before go-live. Insist on receiving full test results, many installers only test when issues arise.
  • Future-Proofing: Opt for Cat 6A or fiber optic cabling to support higher bandwidth and data transfer speeds for future expansion.
  • Power over Ethernet (PoE) Considerations: When deploying PoE for VoIP phones, security cameras, and access points, ensure PoE-rated cabling to prevent overheating and maintain efficiency.

Electricians vs Registered Cablers in LAN Installations

While electricians are licensed for electrical work, they are not automatically authorized to install telecommunications or data cabling. If LAN cabling will connect to a public network, a registered cabler with an Open Cabling Registration is required.

Even if an electrician is performing the work, they must hold separate cabling registration to legally install, terminate, and certify LAN cabling.

Key Installation Considerations for LANs in Commercial Environments:

  • Industry-Standard Cabling: Use Cat 6 or Cat 6A for high-throughput applications (e.g., medical imaging, VoIP, video conferencing). Shielded cables are recommended in high-EMI zones.
  • Compatibility: Always pair Cat 6A cables with Cat 6A connectors and patch panels to avoid performance degradation.
  • Cable Routing Limits: Follow the 100m maximum length for Cat 6A cabling and ensure proper conduit spacing.
  • Regulatory Compliance: Installations must meet ACMA, AS/NZS 3080 & 3000, and AS/CA S009:2020 standards. Always use a certified installer.
  • Labeling and Documentation: Maintain accurate records of cable runs, patch panel IDs, and site maps for ease of troubleshooting and future expansion.
  • Grounding and Shielding: Ensure proper shielding and grounding of cables, especially near fixtures or high-voltage sources.

Importance of Mandatory Testing Before Go-Live:

Many installers only test if an issue arises, but thorough validation is essential. Common cabling faults include:

  • Bad terminations leading to reduced speeds (e.g., improperly crimped RJ45 connectors).
  • High attenuation causing packet loss and increased latency.
  • Undetected faults affecting specialized devices (e.g., PACS, ultrasound machines).
  • Misconfigured cabling limiting network speeds (e.g., 10Base-T connections in medical environments).

Example Case: A recent audit of ultrasound rooms found multiple connections running at 10 Mbps instead of 1 Gbps, due to poor cable installation. The devices functioned but caused slow PACS image transfers and delayed worklist refreshes. Proper testing would have caught this before deployment.

Final Recommendations

  • Use certified cablers to avoid performance issues.
  • Insist on detailed test reports for every data outlet.
  • Plan cable routing carefully to minimize signal loss and interference.
  • Future-proof with Cat 6A or fiber optic for higher performance demands.

By following these standards, commercial LAN environments can achieve high reliability, scalability, and compliance with Australian regulations.

Wired vs. Wireless Connectivity

Preference for Wired Connectivity

For a radiology practice, wired network connections should be the standard for mission-critical systems, ensuring reliability, speed, and security. Key reasons include:

  • Essential for Imaging Workstations: Radiologist reading stations and modality equipment (MRI, CT, X-ray, ultrasound) require low-latency, high-bandwidth connections for handling large DICOM image transfers.
  • Minimizing Latency and Jitter: A wired Ethernet connection (preferably Cat6a or Cat7) provides stable and consistent speeds, reducing image loading times and improving efficiency.
  • Eliminating Electromagnetic Interference (EMI): Medical imaging equipment and wireless networks can generate interference. A wired connection mitigates this risk, ensuring accurate and reliable image transmission.
  • Network Security: Wired connections offer better security than wireless, reducing risks associated with man-in-the-middle attacks, unauthorized access, and Wi-Fi jamming.
  • Higher Quality of Service (QoS): Wired networks can be VLAN-segmented to prioritize essential traffic like PACS/RIS communications and VoIP calls without interference from general internet browsing or guest traffic.

Wireless as a Supplementary Solution

While wired connections should be the default, wireless connectivity has a role in specific areas of a radiology practice:

  • Mobile Workstations & Tablets: Wireless networks allow for flexible staff movement, particularly for radiographers, nurses, and administrative staff accessing RIS/PACS from tablets or laptops.
  • Guest and Staff Wi-Fi: A separate, isolated Wi-Fi network can improve the patient experience in waiting areas while keeping clinical networks secure.
  • Telemedicine and Remote Access: Wireless connectivity can support secure VPN connections for radiologists working remotely.
  • Emergency Backup Connectivity: In case of a wired network failure, a well-implemented Wi-Fi failover system can provide temporary access to critical services.

Best Practices for Implementing Wireless Networks

  • Deploy Enterprise-Grade Access Points: Consumer-grade routers are insufficient. Use managed Wi-Fi 6 (802.11ax) or Wi-Fi 6E access points capable of handling high data throughput and multiple simultaneous connections.
  • Implement QoS (Quality of Service): Configure network rules to prioritize PACS, RIS, and VoIP traffic over less critical applications (e.g., guest browsing).
  • Utilize WPA3 Encryption: To enhance security, disable open networks and enforce WPA3 encryption for staff and clinical device access.
  • Network Segmentation: Create separate VLANs for radiology workstations, guest Wi-Fi, and staff devices to prevent cross-traffic between sensitive systems.
  • Coverage Planning: Conduct a wireless site survey using professional tools to determine optimal access point (AP) placement and eliminate dead zones, interference, and congestion.

Final Recommendation

  • All radiology workstations and modality devices should be hardwired via Gigabit Ethernet connections to ensure performance and security.
  • Wireless should be used only as a secondary solution for non-critical devices or where wired connections are impractical.
  • Implement a structured network design with robust VLAN, security, and QoS policies to balance both wired and wireless environments efficiently.

Wi-Fi Planning

A well-designed Wi-Fi network is critical for seamless clinical operations in a radiology practice. With the increasing reliance on wireless connectivity for RIS/PACS access, telemedicine, and IoT-enabled medical devices, Wi-Fi must be strategically planned to provide secure, high-performance, and reliable coverage across the facility.

Site Surveys & RF Modeling

  • Predictive RF Planning: Use professional RF modeling software (e.g., Ekahau, iBwave) to determine optimal access point (AP) layout, channel planning, and power output.
  • Interference Considerations: Account for thick walls, lead shielding in X-ray rooms, and other obstructions that may degrade signal strength.
  • Multi-Frequency Planning: Ensure adequate 2.4 GHz and 5 GHz Wi-Fi coverage for diverse devices, while considering 6 GHz (Wi-Fi 6E) for future-proofing.
  • Post-Deployment Validation: Conduct before-and-after Wi-Fi surveys to measure actual performance, validate coverage, and make necessary adjustments.

Redundancy & High-Traffic Considerations

  • Overlapping Coverage Areas: Implement overlapping Wi-Fi coverage in high-traffic zones like waiting rooms, reception, and imaging review areas to prevent dead zones.
  • AP Placement for Reliability: Deploy APs in ceiling-mounted configurations to ensure even signal distribution.
  • Load Balancing: Configure APs with band-steering to optimize device distribution across 2.4 GHz and 5 GHz bands.
  • Dual-Controller or Cloud-Managed Wi-Fi: Consider a redundant Wi-Fi controller setup or cloud-based solutions (e.g., Aruba Central, Cisco Meraki) for remote monitoring and failover resilience.

Security & Compliance

  • Secure SSIDs & VLAN Segmentation:
    • Use WPA2/WPA3 Enterprise encryption with RADIUS authentication for staff access.
    • Implement separate VLANs for:
      • Clinical devices (RIS/PACS, ultrasound, MRI, CT)
      • Guest Wi-Fi (isolated from internal networks)
      • IoT devices (smart TVs, environmental sensors)
  • Role-Based Access: Enforce least-privilege access controls by restricting Wi-Fi access to authorized devices and personnel.
  • MAC Address Filtering & Certificate-Based Authentication: Deploy MAC filtering and/or 802.1X certificate-based authentication for additional security.

Performance Optimization for High-Throughput Demands

  • Accounting for Peak Load: Ensure network capacity can handle concurrent users, large DICOM file transfers, telemedicine video calls, and mobile imaging solutions. Deploy Wi-Fi 6 APs to optimize efficiency in high-density environments.
  • QoS (Quality of Service) Implementation: Prioritize latency-sensitive applications like VoIP, telemedicine, and PACS image streaming. Use bandwidth shaping to prevent non-essential applications from impacting clinical operations.
  • DFS (Dynamic Frequency Selection): Configure DFS channels to reduce interference from external signals (e.g., radar) while maximizing available spectrum.

Verification & Continuous Monitoring

  • Predictive & Post-Installation Surveys: Perform a predictive survey pre-installation and a validation survey post-installation to confirm real-world coverage and optimize AP placement.
  • Network Monitoring Tools: Use real-time network analytics (e.g., Aruba AirWave, Cisco DNA Center) to track performance and troubleshoot connectivity issues.
  • Automated Alerts: Set up alerts for signal degradation, interference detection, and device misbehavior to enable proactive troubleshooting.

Camera Design

  • Layout & Coverage: Deploy cameras based on foot traffic, door swings, and critical zones.
  • Priority Areas: Entrances/exits, server rooms, modality control areas.
  • Hardware Selection: High-definition, low-light, or IR illumination for various lighting conditions.
  • Regulatory: Address privacy concerns, maintain logs, and adhere to local retention rules.

Waiting Room TV

  • Commercial-Grade Displays: Designed for continuous use; consider anti-glare or high-brightness versions.
  • Digital Signage: Centralized management for scheduling content and controlling power cycles. Potential integration with queue systems.
  • Acoustic Considerations: Low-volume background music fosters privacy (e.g., gentle instrumental or soft white noise). Distribute speakers for even coverage, ensuring ambient audio reduces the risk of overheard conversations.
  • Connectivity: At least one network port behind each TV, plus a second for set-top boxes.

Common Area Audio

  • Design & Coverage: Use commercial-grade speakers with zone volume controls to suit varying noise levels.
  • Systems Integration: Tie into paging or alert systems for overhead announcements.
  • Installation: Label wiring thoroughly; keep updated diagrams.

Server/Comms Room

Power

  • Dedicated Circuits: Isolate server circuits; employ redundant breakers.
  • Surge Management: Monitor voltage fluctuations; advanced surge systems record events.
  • Amperage Requirements: Provide a 32-amp IEC for UPS, plus dual 15-amp outlets as a minimum.
  • Placement: Position power inside racks or overhead for organized cable management.

Cabinet

  • Server Rack vs. Comms Rack: Minimum 650 mm depth for PoE switches; full-depth for server-grade hardware.
  • PDU Installation: Use a UPS-linked PDU with remote monitoring/logging.
  • Capacity & Ventilation: Plan for future expansions; lockable side panels prevent unauthorized access.

UPS (Uninterruptible Power Supply)

  • Sizing & Runtime: Factor in servers, network gear, and imaging devices to allow graceful shutdowns.
  • Brand Cohesion: Matching UPS/PDU simplifies management.
  • Monitoring: Deploy agents on connected devices for safe shutdown.

Data Cabling

  • Compliance: Follow Cat6a best practices and local code.
  • Infrastructure Protection: Use trays or conduits; label patch panels clearly.
  • Testing: Check near-end crosstalk and continuity; resolve anomalies promptly.
  • Future-Proofing: Keep extra space/ports for new modalities.

Patching

  • Documentation: Maintain up-to-date rack diagrams, labelling each switch port.
  • Materials: Patch cords must match in-wall cable standards.

Air Conditioning

  • Environmental Management: Size AC for worst-case loads, server overheating is a major risk.
  • Redundant Cooling: Employ backup AC units or partial cooling to minimize downtime.

Backups

  • Local & Remote: Onsite backups for quick restoration; cloud/offsite for disaster recovery.
  • Validation & Encryption: Test restores regularly; encrypt data for compliance.

Additional Considerations

  • Telehealth Stations: Private, secure rooms for remote consultations, incorporating noise suppression.
  • Workstation Ergonomics: Adjustable monitor arms, seating, and anti-glare filters for consistent imaging.
  • IP Telephony Integration: Enforce QoS for calls; consider integrated headset solutions.
  • Security & Access Control: Role-based access for server rooms and critical areas; keycard or biometrics.
  • Building Management Integration: Power/HVAC monitoring, alerts for environmental issues.
  • Physician Breakout Areas: Spaces with AV tools for case reviews.
  • Staff Training & Onboarding: Ongoing education about equipment, cybersecurity, and workflows.

Network and Redundancy

Networking constitutes the foundational framework of radiology practices, facilitating the seamless transfer of diagnostic images between modalities and PACS while ensuring the continuous functionality of RIS for patient scheduling and management. Poorly executed network designs not only hamper operational efficiency but can jeopardize the timeliness and accuracy of patient care delivery.

Common Networking Pitfalls

Heterogeneous Vendor Environments

A frequent challenge in radiology IT systems arises from the use of disparate vendor equipment, such as Fortinet firewalls, Aruba switches, and Ubiquiti wireless access points, within the same infrastructure. These setups undermine the integrated management and security capabilities provided by unified systems. For instance, Fortinet firewalls include controllers for switches and wireless access points, offering centralized management and visibility through their UTP (Unified Threat Protection) platform. Introducing mixed vendor components disables these functionalities, creating inefficiencies and potential security gaps.

Suboptimal Network Design

A critical component of any radiology network is effective segmentation. Each modality and device type should be assigned to dedicated VLANs to ensure:

  • Enhanced Security: Network segmentation limits unauthorized access and mitigates the lateral movement of potential threats, safeguarding sensitive diagnostic data.
  • Quality of Service (QoS): VLANs allow bandwidth prioritization for critical tasks, such as real-time voice communication, over bandwidth-heavy imaging file transfers.

Inadequate Wi-Fi Security Protocols

Securing Wi-Fi networks is paramount. Radiology practices must enforce signed SSL certificates for all devices connecting to the network, allowing only authenticated and approved devices to gain access. Additional measures, such as MAC address filtering and role-based authentication, further enhance security.

Lax Switch Port Security

Robust port-level security is critical to maintaining network integrity:

  • Locking devices to designated switch ports, preventing unauthorized relocation or replacement.
  • Blocking undocumented or rogue devices from accessing the network.
  • Regular audits of switch port configurations, alongside detailed documentation of port assignments.

VLAN Configuration in Radiology Networks

A well-designed VLAN structure is crucial for the performance, security, and scalability of radiology networks:

VLANPrefixDescriptionNetworkSubnet MaskDHCP
101MGMTManagement Network10.151.11.0/24255.255.255.0Enabled
102LANLocal Area Network10.151.12.0/24255.255.255.0Enabled
103WLANWireless Network10.151.13.0/24255.255.255.0Enabled
104PRINTERPrinter Network10.151.14.0/24255.255.255.0Disabled
105VOICEVoice Traffic10.151.15.0/24255.255.255.0Enabled
106SVRServer Network10.151.16.0/24255.255.255.0Disabled
107UPSUPS Monitoring10.151.17.0/24255.255.255.0Enabled
108USUltrasound10.151.18.0/24255.255.255.0Disabled
109CTCT Scanner Network10.151.19.0/24255.255.255.0Disabled
115RESTRICTEDRestricted Network10.151.27.0/29255.255.255.248Enabled
116WLAN_GuestGuest Wireless10.151.31.0/24255.255.255.0Enabled

Key Best Practices:

  • Ensure VLANs are designated for specific device types to isolate network traffic and enhance performance.
  • Disable DHCP for networks where static IPs are used, such as imaging devices, to maintain configuration stability.
  • Ensure gateways and subnet masks are appropriately configured for each VLAN to avoid routing issues.

High-Availability Network Architecture

To ensure seamless operations and minimal downtime, radiology practices must implement high-availability network configurations:

  1. Redundant Firewalls: Active-passive firewall setup ensures uninterrupted network security and connectivity.
  2. Redundant Switch Configuration: Dual uplinks and stacked switches maintain traffic flow during hardware failures.
  3. Segmentation via VLANs: VLANs isolate traffic for modalities, voice, printers, and management to optimize performance.
  4. IPSec Connections: Secure connections to external data centers safeguard patient data during transfers.

Cabling Infrastructure

A high-quality cabling infrastructure is the bedrock of a reliable and scalable network. In Australia, Cat5e cabling is considered obsolete, with Cat6a emerging as the gold standard for contemporary installations.

  • Data Outlet Requirements: Every workstation should feature at least two data outlets, one for the computer and one for the phone.
  • Labelling and Documentation: Labelling wall ports and their corresponding patch panel connections is a mandatory practice.
  • Cabling Standards Compliance: Mismatches between cabling and termination components remain a common issue. Deploying Cat6a cabling with Cat5 modules or patch panels nullifies the performance benefits.
  • Cable Path Design: Data cabling must maintain a minimum separation of 15-30 cm from power cabling to mitigate electromagnetic interference (EMI).
  • Patch Panel Efficiency: Patch panels should use short, standardized cables, 30 cm is ideal, to reduce clutter, improve airflow, and simplify management.
  • High-Speed Interconnects: SFP+ cables, supporting 10 Gbps speeds, are essential for interconnecting switches. Practices must ensure compatibility between SFP+ cables and switch models.

Warranty and Service Level Agreements (SLAs)

Comprehensive Server Warranty Requirements

Service Response Time:

  • Next Business Day Response: Manufacturers must address hardware malfunctions by the next business day to limit operational disruptions.
  • Same Day 4-Hour Response (Optional): For mission-critical systems, a 4-hour response option is advisable. This ensures that technical resources are allocated within four hours of issue reporting. However, this does not guarantee resolution within four hours.
  • Defective Media Retention (DMR): Warranties must include DMR to ensure organizational ownership of all storage media, such as SSDs and hard drives, even in cases of hardware failure or replacement.

Establishing SLAs with Managed Service Providers

The SLA should clearly define:

  • Response and Resolution Times: Tailored timelines for addressing issues of varying severity.
  • Communication Protocols: Clear processes for updates and escalation management.
  • Manufacturer Collaboration: Coordination between the MSP and the manufacturer’s support teams.
  • Data Security Measures: Explicit guidelines for safeguarding defective media and maintaining robust data protection protocols.

Advanced Considerations for Radiology Practice Owners

  • Hardware Redundancy: Implement redundancy for critical systems such as PACS and RIS to prevent downtime caused by single points of failure.
  • Vendor-Specific Modality Warranties: Each diagnostic and imaging modality must have an independent warranty covering both hardware and software components.
  • Data Backup and Recovery Protocols: Ensure SLAs include provisions for regular data backups, secure storage solutions, and rapid recovery mechanisms.
  • Regulatory Compliance: Verify that all warranty and SLA terms comply with healthcare regulations such as HIPAA, GDPR, or equivalent local mandates.
  • Proactive Maintenance: Opt for warranties and SLAs that include firmware updates, system diagnostics, and preventive measures.
  • Comprehensive Training and Support: Ensure SLAs include end-user training and technical support.

Data Storage and Backup

  • Choose PACS and RIS solutions with scalable storage.
  • Implement cloud-based backups and disaster recovery solutions for data resilience.
  • Partner with trusted storage vendors to ensure performance and compliance.

Practice Setup Checklist: RIS, PACS, Hardware, and Regulatory Requirements

This checklist outlines the essential systems, registrations, and hardware required to launch a radiology practice using Voyager Imaging’s RIS and PACS platforms.

Key Registrations and Approvals

  • Create a PRODA Account for the business: Services Australia
  • Obtain a Location Specific Practice Number (LSPN) from Medicare: LSPN Registration
  • Apply for Provider Numbers for radiologists via their personal PRODA accounts (one per site).
  • HW027 Form (Minor ID Setup): Voyager Imaging provides the Minor ID required for this submission. HW027

Core IT and Infrastructure Requirements

  • Server, Cloud or Hybrid Platform: Required to host Voyager RIS and PACS.
  • PC Hardware by Role:
    • Receptionist workstation
    • Technologist station (shared use for RIS and PACS)
    • Typist (if applicable): Philips LFH5220 Transcription Kit
    • Practice Manager station
    • Radiologist workstation:
      • Philips LFH3700 SpeechMike Premium
      • Diagnostic displays (LG, Barco, Eizo)
      • Voice recognition: Augnito (via Voyager) or Dragon Medical One
  • RIS Workstation Network & Power: Ensure suitable cabling, switching, VLAN design, and GPO availability.
  • Peripheral Devices:
    • Multi-function printers
    • Scanners
    • Label printers

Communication and Messaging Services

Essential IT Equipment

Point-of-Sale and Payment Solutions

  • Deploy secure and reliable EFTPOS terminals with seamless integration into practice management software.
  • Ensure PCI DSS compliance for secure transaction processing and patient data protection.
  • Consider wireless or mobile payment solutions to enhance patient convenience.
  • Implement automated reconciliation features within POS systems.
  • Choose multi-terminal support for larger practices.

Diagnostic Monitors and Workstations

  • Invest in high-quality diagnostic displays (e.g., LG Diagnostic Monitors) calibrated for medical imaging standards.
  • Use business-grade workstations designed for medical applications.
  • Implement dual-monitor setups to improve radiologists’ workflow efficiency.
  • Ensure vendor certification of monitors and workstations to meet radiology compliance requirements.
  • Invest in ergonomic workstation configurations.
  • Deploy high-speed GPUs in workstations for advanced medical imaging software.

Networking Equipment

  • Deploy enterprise-grade switches, routers, and wireless access points.
  • Utilize redundant network connections with automatic failover.
  • Implement Ubiquiti UniFi Protect Camera Systems for facility security.
  • Establish VLAN segmentation for radiology modalities, PACS, and administrative systems.
  • Implement firewall and intrusion detection systems.
  • Deploy Wi-Fi optimization strategies, including heat mapping and access point calibration.
  • Consider network monitoring tools for proactive performance management.

Printing and Imaging Solutions

  • Utilize centralized DICOM paper printing solutions (e.g., Neologica DICOMJet).
  • Implement networked laser printers with secure print release functionality.
  • Ensure integration with PACS and RIS systems for automated report and image printing workflows.
  • Consider cloud-based printing solutions.
  • Deploy high-resolution color printing for detailed medical imaging reports.
  • Establish automated supply monitoring systems for printing devices.
  • Ensure compliance with data security protocols for printed medical records.

Software Solutions

RIS and PACS

  • Select scalable and reliable RIS/PACS solutions (e.g., Kestral RIS, Sectra PACS) tailored for radiology workflows.
  • Ensure compatibility with modality equipment and image storage solutions.
  • IT infrastructure must be fit for purpose. Software vendors should build highly available deployments of RIS and PACS to ensure uptime.

Cybersecurity and Physical Security

  • Deploy cybersecurity tools like Adlumin for real-time monitoring and threat detection.
  • Integrate cybersecurity solutions with existing infrastructure to avoid performance impacts.
  • Back to base alarm.

Internet

Advanced Internet Requirements

The selection of an appropriate internet service provider (ISP) is of paramount importance for radiology practices:

  • Integrated Data and Voice Services: ISPs must offer robust data and voice integration. Providers with end-to-end visibility into network performance are better equipped to address call quality issues efficiently.
  • Scalability: ISPs should provide scalable solutions that accommodate evolving bandwidth demands.
  • Redundancy and Uptime Guarantees: ISPs must ensure high availability through redundant network pathways and SLAs promising 99.9% or higher uptime.
  • Security Protocols: ISPs must demonstrate adherence to stringent security measures and regulatory compliance frameworks.
  • Application-Specific Support: Providers should handle large data transfers like DICOM images and support mission-critical software such as RIS and PACS.
  • Comprehensive 24/7 Technical Support: Radiology practices require ISPs that can deliver immediate technical assistance.
  • High Bandwidth Over Fiber: Practices utilizing external RIS and PACS should opt for fibre connections offering high bandwidth.
  • Firewall Encryption Compatibility: Practices employing site-to-site tunnels must confirm their firewalls’ encryption throughput matches the ordered bandwidth.
  • Dual Internet Lines: All radiology practices should maintain dual internet lines for operational resilience.
  • 1Gbps Teleradiology Requirement: For practices providing teleradiology services, a minimum 1Gbps internet connection is essential.
  • NBN Business Plans and Service Levels: The NBN’s business offerings, including TC4 and TC2, provide enhanced SLAs suitable for radiology environments.
  • Diverse Path Planning: Secondary internet connections should employ diverse pathways to mitigate single points of failure.
  • Power Backup for NTUs: Network Termination Units must include battery backup systems to sustain operations during power outages.

Key Providers

Ripple Networks: ripplenetworks.com.au

  • Delivers bespoke solutions tailored for radiology practices.
  • Integrates data and voice services with a strong emphasis on troubleshooting and support.
  • Renowned for high-touch customer service and adaptable healthcare-focused options.
  • Offers advanced routing and monitoring tools specifically designed for healthcare data requirements.

TPG: tpg.com.au

  • Cheap service.
  • Support is difficult to work with.
  • Offers cost-effective high-speed broadband solutions.
  • Provides business-grade internet and voice services, though additional configurations may be needed for healthcare-specific requirements.

iSeek: iseek.com.au

  • Typically, expensive.
  • Specializes in secure, high-performance connectivity for industries with stringent data security needs.
  • Offers managed services, including private cloud hosting and secure data center solutions.
  • Demonstrates expertise in designing redundant and diverse network architectures.

Conclusion

Selecting an ISP for a radiology practice requires a nuanced understanding of industry-specific requirements. Practices must evaluate their immediate and long-term needs, focusing on reliability, security, and scalability.

Voice Services / Phone System

Voice Services and Telephony Solutions for Radiology Practices

The Strategic Importance of Advanced Communication Systems

In the specialized domain of radiology, effective communication is a non-negotiable cornerstone for ensuring operational efficiency, seamless patient care, and robust collaboration with referring physicians.

Key functionalities include:

  • Managing High Call Volumes: Robust systems that facilitate effective interaction among patients, physicians, and administrative teams.
  • VoIP Efficiency: Internet-based protocols that enhance call quality while reducing costs.
  • IT Integration: Unified communications that seamlessly harmonize with RIS, PACS, and scheduling systems.
  • Scalable Architecture: A framework that supports growth without significant infrastructure overhauls.
  • Disaster Recovery Mechanisms: Safeguards ensuring operational continuity during network disruptions or power outages.

Telephony Providers with Expertise in Radiology

Ripple Networks

  • 3CX Integration: Expert deployment and management of 3CX systems.
  • Unified Communication Systems: Integration of voice, video, and messaging platforms.
  • Customizable Call Management: Tailored configurations for call flows, auto-attendants, and voicemail.
  • Resilient Redundancy Mechanisms: Failover configurations and high-availability designs.
  • Comprehensive Support: 24/7 technical assistance.

3CX

  • Simultaneous Caller-Based Pricing: Cost is based on concurrent calls rather than the number of extensions.
  • Advanced Call Management: Intelligent routing, automated queues, and multi-level IVR menus.
  • Cloud Integration: Ensures accessibility even during internet outages through mobile applications.
  • Remote Work Capabilities: Mobile and desktop apps maintain productivity for off-site staff.
  • Comprehensive Analytics: Robust metrics for optimizing operational performance.

Telstra Health

  • VoIP and Unified Communications: Solutions tailored to integrate seamlessly with healthcare IT infrastructures.
  • Reliability and Redundancy: Architectures designed to ensure uptime.
  • Dedicated Support Teams: Professionals trained to address the unique communication needs of radiology operations.

Optus Business

  • Scalable VoIP Platforms: Systems adaptable to dynamic operational requirements.
  • Custom IT Integration: Optimized for compatibility with RIS, PACS, and other healthcare platforms.
  • Enhanced Security: Protection against unauthorized access and data breaches.

NEC Australia

  • Unified Communication Tools: Voice, video, and messaging systems for enhanced collaboration.
  • Comprehensive Support Services: Real-time assistance ensures operational reliability.
  • Note: Relies on proprietary hardware, which may limit flexibility.

Essential Features of Contemporary Phone Systems

  • VoIP Technology: High-definition voice transmission with significant cost advantages over traditional telephony.
  • Interactive Voice Response (IVR): Automated menus for efficient call routing.
  • Call Recording and Compliance: Recording capabilities for quality assurance, training, and legal compliance.
  • System Integration: Linking telephony systems with patient management platforms.
  • Scalability and Adaptability: Easily extendable systems for growing operational needs.
  • SIP Trunks and Cost Efficiency: Typically priced at $29/month, most practices require at least four lines.
  • Cloud-Based Resilience: Cloud-hosted solutions allow uninterrupted access via mobile apps during outages.
  • Session Border Controllers (SBCs): On-premises SBCs ensure secure handling of internal and emergency calls.
  • Avoiding Cost Pitfalls: Avoid financing telephony systems or subscribing to per-phone monthly plans.

Email

Strategic Role of Email Systems in Radiology

Email serves as a critical conduit for secure and efficient communication among patients, referring physicians, and internal staff. Key considerations include:

  • Security and Compliance: Advanced encryption protocols, secure access mechanisms, and regulatory adherence.
  • Scalability: Dynamic adaptability to accommodate growing organizational demands.
  • Integration Capabilities: Compatibility with RIS, PACS, and scheduling platforms.
  • Reliability and Uptime: Continuous accessibility to mitigate disruptions.
  • Collaboration Tools: Shared calendars, secure messaging, and real-time co-authoring.
  • Cost-Effectiveness: Optimization of expenditures without compromising functionality.

Comparative Analysis of Leading Providers

Microsoft Office 365

  • Exchange Online: Multi-factor authentication (MFA), data loss prevention (DLP), robust encryption. 50 GB per user mailbox storage.
  • Compliance Tools: Advanced auditing, HIPAA-compliant configurations, and eDiscovery.
  • Microsoft Ecosystem Integration: Teams, Word, Excel, PowerPoint, SharePoint, OneDrive.
  • Enhanced Threat Protection: Defenses against phishing, malware, and cyber threats.
  • Service Reliability: 99.9% uptime SLA.
  • Additional Features: Email journaling, single sign-on (SSO), one-click Outlook setup.

Google Workspace

  • Gmail: AI-powered categorization, robust spam filtering. Flexible storage from 30 GB to unlimited per user.
  • Security and Compliance: End-to-end encryption, automated threat detection, HIPAA-compliant.
  • Collaboration Tools: Google Drive, Docs, Meet, Calendar integration.
  • Service Reliability: 99.9% uptime.
  • Advanced Search: AI-driven search for emails and attachments.

Solutions to Avoid

Web Hosting Provider Email Services:

  • Lack robust security measures
  • Limited sync and management features
  • Scalability challenges
  • Rarely meet healthcare regulatory standards

Personal Email Accounts:

  • Security vulnerabilities
  • No backup capabilities
  • Limited features
  • Non-compliance with regulatory requirements

Implementation Best Practices

  1. Needs Assessment: Evaluate operational requirements, existing IT infrastructure, and regulatory obligations.
  2. System Integration: Ensure compatibility with RIS, PACS, and scheduling platforms.
  3. Staff Training: Develop training programs for collaboration and security features.
  4. Performance Monitoring: Regularly review system performance metrics and user feedback.

Webhosting

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Introduction to HL7 Messaging

Health Level 7 (HL7) is the international standard for exchanging electronic health information (EHI) between healthcare systems, including RIS, PACS, hospital systems, and pathology labs. HL7 messaging allows seamless communication of patient information, referrals, results, and reports between different healthcare providers.

For a radiology practice, having a robust HL7 messaging provider ensures that results are delivered securely and efficiently to referring doctors and hospitals.

healthlink.com.au

Key Features:

  • Secure HL7 messaging for pathology, radiology, and specialist reports.
  • Integration with most major RIS and PACS solutions.
  • Compliance with Australian Digital Health Agency (ADHA) standards.
  • Supports electronic referrals and discharge summaries.
  • Encrypted point-to-point delivery ensuring data privacy.

Pros:

  • Large network of healthcare providers across Australia and New Zealand.
  • Strong compliance with healthcare security standards.
  • Good integration with most Australian RIS vendors.

Cons:

  • Slightly higher setup and ongoing costs compared to alternatives.
  • Some RIS and PACS integrations may require customization.

Contact: Nick Rowland, National Manager, Diagnostic Services Tel: +61 2 8321 0623 | Mobile: +61 421 189 486 | Email: nick.rowland@healthlink.net

MedicalObjects

medicalobjects.com

Key Features:

  • Instant HL7 Messaging: Real-time transmission with minimal delay.
  • Secure Messaging: End-to-end encryption for compliance.
  • Integrated Viewer: Built-in support for receiving and viewing messages.
  • Broad Compatibility: Works with most RIS and PACS vendors.
  • Pathology and Radiology Focus: Optimized for sending results from diagnostic centers to referrers.

Pros:

  • Faster HL7 message transmission compared to competitors.
  • Lower latency ensures near-instant delivery of reports.
  • Competitive pricing structure.

Cons:

  • Smaller user base compared to HealthLink.
  • Some referring doctors may not be set up with MedicalObjects.

Contact: Paul Gladstone, Business Development Manager Tel: +61 7 5456 6000 | Email: paul@medicalobjects.com

FeatureHealthLinkMedicalObjects
CoverageAustralia & NZ (widely adopted)Australia (growing adoption)
SpeedSlight delay due to batch processingReal-time messaging with low latency
IntegrationWell-supported by most Australian RIS/PACSWorks with most systems but may require additional configuration
ComplianceADHA-compliant, encryptedADHA-compliant, encrypted
Ease of UseRequires integration within RIS/PACSIncludes built-in viewing tools for referrers
CostHigher setup and ongoing costsCompetitive pricing
Referrer BaseLarge network of registered referrersGrowing network, but some referrers may need to sign up

Which HL7 Provider is Best for a Radiology Practice?

Both HealthLink and MedicalObjects are reliable HL7 messaging providers. The choice depends on key priorities:

  • If your practice prioritizes a large existing network and established compliance, HealthLink is a strong choice.
  • If your practice values speed, cost-effectiveness, and instant HL7 message delivery, MedicalObjects may be the better option.

For optimal performance, many radiology practices use both providers to ensure maximum coverage for referring doctors.

Comprehensive Analysis of RIS and PACS Vendors in Australia

The strategic selection of RIS and PACS vendors is paramount for achieving sustained operational efficiency and clinical excellence in radiology practices.

RIS and PACS Software Providers

RIS Software ProvidersPACS Software Providers
Ripple Networks: Cloud RISRipple Networks: Cloud PACS
Voyager Imaging: RISVoyager Imaging
COMRAD: Aura RISIntelerad IntelePACS
Contrast Imaging Solutions: RISContrast Imaging Solutions: PACS
Kestral: KarismaQUBS: RIS
QUBS: RISSectra PACS
Healthinc: OCCAMPromedicus: Visage RIS
Scanaptics: RISAdva PACS
Promedicus: Visage RIS
InteleRIS: Intelerad RIS

Kestral: Karisma RIS

Website: kestral.com.au

Sales Contact: David Moran (Senior Account Manager) Email: David.moran@kestral.com.au | Mobile: +61 419 531 510 | Phone: +61 3 9663 9888

Product Portfolio: Karisma RIS, A comprehensive radiology information system designed for efficient workflow customization and integration.

Strengths:

  • Dedicated local Australian support for rapid issue resolution.
  • Seamless workflow integration optimizes operational efficiency.
  • Flexible deployment options (on-premise/cloud-hosted).

Weaknesses:

  • Kestral implementation team often booked out.

Key Features:

  • Advanced reporting with analytical insights.
  • Integrated billing and revenue cycle management.
  • Intelligent patient scheduling and workflow optimization.

Integrations: Fully compatible with Sectra PACS, Visage Imaging, and various modality systems.

Cost Structure: User-based licensing model with annual maintenance and support fees.

Sectra: Sectra PACS

Website: sectra.com

Sales Contact: Jon Guerard (Customer Success Manager for Australia and New Zealand) Email: jon.guerard@sectra.com | Mobile: +64 21 772 340 | Phone: +46 13 23 52 00

Product Portfolio:

  • Sectra PACS: Enterprise-level imaging management solution.
  • Sectra IDS7: Diagnostic imaging workstation software.

Strengths:

  • High scalability for large, complex healthcare networks.
  • Superior image management and distribution functionality.
  • Advanced cybersecurity protections.

Weaknesses:

  • Significant upfront investment required.
  • Complex deployment for multi-site networks.

Key Features:

  • Enterprise-wide imaging support with seamless integration.
  • Robust disaster recovery and business continuity solutions.
  • Efficient modality and EHR integration.

Integrations: Compatible with Kestral RIS, Sectra IDS7, and leading imaging modalities.

Cost Structure: High capital expenditure with recurring support costs.

Ripple Networks: Cloud-Hosted RIS and PACS

Website: ripplenetworks.com.au

Sales Contact: Clive Rae (Customer Success Manager for Australia and New Zealand) Email: crae@ripplenetworks.com.au

Product Portfolio:

  • Ripple PACS: Cloud-hosted PACS solution.
  • Ripple RIS: Integrated RIS platform.
  • Ripple Managed Firewall and Network: A comprehensive managed network service.
  • Ripple Fibre: Fibre internet to metro and some rural locations.
  • Ripple NBN: A layer 2 internet service and layer 3 service offering.

Strengths:

  • Eliminates infrastructure management challenges.
  • High uptime through redundant cloud architecture.
  • Effortless scalability to support growth.

Weaknesses:

  • Dependency on stable internet connectivity.
  • Latency risks during high network traffic.

Key Features:

  • Automated cloud backups and disaster recovery.
  • Secure, scalable cloud storage.
  • Encrypted remote access for radiologists.

Integrations: Integrates with Voyager Imaging, Sectra PACS, and DICOM-compliant devices.

Cost Structure: Flexible subscription-based pricing model.

Intelerad: Medical Imaging Platform

Website: intelerad.com

Sales Contact: Anusheel Chand (Expansion Sales, Account Executive) Mobile: +61 433 370 824 | Email: anusheel.chand@intelerad.com

Company Overview: Intelerad is a global leader in enterprise medical imaging solutions, offering scalable, cloud-native PACS and workflow management platforms.

Product Portfolio:

  • IntelePACS: A cloud-based PACS designed for enterprise imaging scalability and remote accessibility.
  • InteleViewer: An advanced diagnostic image viewer with high-speed performance and robust analytical tools.

Key Strengths:

  • Workflow Automation: Optimizes radiology workflows through automation.
  • Scalability & Cloud Integration: Cloud-native infrastructure supports seamless multi-site expansion.
  • Advanced Image Sharing & Interoperability: Facilitates real-time image access and multi-modality imaging.

Potential Challenges:

  • Implementation Complexity: Deployment requires careful planning and technical expertise.
  • Ongoing Costs: Subscription-based pricing and maintenance fees may require budget considerations.

Key Features:

  • Enterprise-Wide Imaging: Centralized system for improved diagnostic collaboration.
  • Automated Workflow Management: AI-powered tools for streamlining image distribution.
  • Secure Cloud Hosting: HIPAA-compliant and GDPR-ready cloud solutions.

Integrations: Compatible with Kestral Karisma RIS, Sectra PACS, Ripple Networks, and other third-party imaging solutions.

Cost Structure: Subscription-based licensing or perpetual licensing with setup fees.

Voyager Imaging: RIS and PACS Solutions

Website: voyagerpacs.com

Sales Contact: Graeme Drake (National Sales Manager) Email: graeme.drake@voyagerpacs.com | Mobile: +61 472 812 565

Product Portfolio:

  • Voyager RIS: Radiology information system.
  • Voyager PACS: Cloud and on-premise imaging solution.

Strengths:

  • Competitive, flexible pricing models.
  • Strong local support for Australian practices.
  • Scalable deployment for practices of all sizes.

Weaknesses:

  • Limited advanced features for large enterprises.

Key Features:

  • Cloud and on-premise deployment flexibility.
  • Full DICOM compatibility.
  • Workflow optimization tools.

Integrations: Seamlessly integrates with Sectra PACS, Kestral RIS, and major imaging systems.

Cost Structure: Per-study pricing or annual subscription options.

Comrad: Aura RIS

Website: comrad.co.nz

Sales Contact: Anne-Marie Hales (Client Account Manager) Email: anne-marieh@comrad.com.au | Mobile: +61 431 221 396

Product Portfolio: Aura RIS, Cloud-based radiology information system.

Strengths:

  • Leading market presence in Australia and New Zealand.
  • Comprehensive patient data management.
  • User-friendly interface design.

Weaknesses:

  • Limited PACS integration options.

Key Features:

  • Cloud-native RIS platform.
  • Automated workflow solutions.
  • Integrated billing and reporting tools.

Integrations: Compatible with Voyager Imaging PACS and Sectra PACS.

Cost Structure: Subscription-based pricing with scalable options.

Healthinc: OCCAM

Website: healthinc.com.au

Contrast Imaging Solutions

Website: contrastimaging.com.au

Sales Contact: Jason Wilden (Commercial Manager) Mobile: +61 403 341 082 | Email: jason@contrastimaging.com.au

Company Overview: Contrast Imaging Solutions specializes in developing and supplying complete diagnostic imaging workflow solutions. Their flagship product, Contrast ONE, integrates RIS and PACS functionalities into a unified platform.

Product Portfolio: Contrast ONE, A comprehensive RIS PACS solution combining business and clinical applications.

Key Strengths:

  • Integrated Workflow: Combines RIS and PACS functionalities, eliminating the need for multiple systems.
  • Scalability: Suitable for imaging organizations of all sizes.
  • Enhanced Referrer Relationships: Tools to improve service delivery with referring physicians.

Potential Challenges:

  • Implementation Planning: Requires meticulous planning for optimal configuration.
  • Training Requirements: Staff may need comprehensive training.

Key Features:

  • Unified System encompassing both RIS and PACS domains.
  • Customizable Workflow Queues with color-coded indicators.
  • Comprehensive Modality Support for a wide range of DICOM modalities.
  • Flexible Scheduling with modality-based scheduling and multi-site bookings.
  • Advanced Reporting Tools with customizable templates.
  • Secure Web Referrer Portal for referring physicians.

Integrations: Includes an HL7 server for integration with Hospital Information Systems (HIS).

Cost Structure: Customized pricing tailored to imaging center needs.

Scanaptics

Website: scanaptics.com.au

Sales Contact: Neeraj Makhija (Sales Representative) Mobile: +61 450 412 124 | Email: neeraj.makhija@scanaptics.com.au

Company Overview: Australian-based provider of managed IT services specializing in healthcare, offering cloud-based RIS, PACS, and EDI solutions.

Product Portfolio: RIS-PACS-EDI Suite, A fully managed, cloud-hosted solution.

Key Strengths:

  • Integrated Cloud-Based Platform combining essential radiology systems.
  • Cost-Effective Model operating on a per-study basis.
  • Comprehensive Support Services including infrastructure management, voice recognition, and transcription.

Potential Challenges:

  • Implementation Planning: Transitioning requires careful planning.
  • Training Requirements: Staff may need training.

Key Features:

  • Radiology on the Cloud: Uses Comrad for RIS and Intelerad for PACS, with Healthlink and Medinexus for result distribution.
  • Mobile Applications for referrers and patients.
  • Advanced Infrastructure hosted in secure Australian data centers.

Integrations: Integrates with Healthlink and Medinexus.

Cost Structure: Per-study pay-as-you-go model.

Vendor Selection and Management

Partnering with Service Providers

Radiology practices require robust IT systems to support PACS, RIS, secure networking, data backups, and cybersecurity measures. Partnering with the right service providers can alleviate the burden of managing complex IT environments.

Employing Your Own IT Staff vs. Outsourcing IT Services

Many radiology practices consider hiring an in-house IT team. However, employing internal IT staff can be impractical for several reasons:

  • High Costs: Hiring, training, and retaining skilled IT professionals is expensive. Outsourcing provides a predictable, scalable cost structure.
  • Limited Expertise: A small IT team may lack the breadth of experience required to manage diverse technologies.
  • Scalability Issues: Outsourcing provides flexibility to scale services as needed without recruiting additional staff.
  • 24/7 Support Challenges: An in-house team may not provide round-the-clock support. Outsourced providers typically offer 24/7 remote monitoring and response.
  • Tool Requirements: Internal IT teams require PSA, RMM, Ticket System, CMDB, and a knowledge base to streamline operations. Managing these tools in-house can be overwhelming and costly.
  • Knowledge and Certification: IT staff must be trained and certified to use tools effectively. External IT providers already have trained personnel with relevant certifications.
  • Staffing and Accountability Issues: Small teams often require individuals to spread their skills across multiple areas, making it difficult to achieve desired outcomes.
  • Field Technician Requirement for Multi-Site Operations: Multi-site operations need dedicated field technician teams for on-site support.
  • Partnerships with RIS and PACS Vendors: Partnering with vendors accelerates issue resolution and ensures minimal downtime.

Case Study: A multi-site radiology provider attempted to manage IT internally but lacked dedicated field technicians. When a server issue occurred at a remote location, delays in sending technical staff led to prolonged system outages. After switching to an outsourced IT provider, they gained immediate remote support and a dedicated field technician team, significantly reducing response times.

How to Choose an IT Service Provider

1. Industry Experience

  • Choose a provider with expertise in medical and radiology IT systems, including RIS, PACS, and HL7 integrations.
  • Verify their familiarity with compliance standards such as the Australian Privacy Principles (APPs).

Case Study: A radiology clinic selected an IT service provider without healthcare experience. When integrating a new PACS system, the provider failed to account for image compression standards, leading to diagnostic-quality issues. The clinic was forced to hire a second IT firm with radiology expertise.

2. Comprehensive Services

A reliable IT service provider should offer:

  • Network design and management
  • Cybersecurity and compliance monitoring
  • Cloud and on-premise storage solutions
  • Data backup and disaster recovery
  • 24/7 help desk and on-site support
  • Software integration and vendor coordination

Case Study: A radiology group signed an IT contract that did not include cybersecurity monitoring. A ransomware attack locked their PACS system, leading to costly downtime and significant patient delays. After switching to a provider offering comprehensive security solutions, they implemented proactive monitoring and backups that prevented future attacks.

Ongoing IT Maintenance and Support

  • Proactive Monitoring: Continuous oversight to detect issues before they escalate.
  • Automated Alerts: Instant notifications for hardware failures, cybersecurity threats, and network outages.
  • Routine Updates: Regular software patching, security updates, and hardware optimizations.
  • On-Site and Remote Support: Quick issue resolution with minimal disruption.

Case Study: A radiology clinic experienced repeated hardware failures due to poor maintenance. After moving to a provider that conducted routine hardware checks and software updates, system reliability improved significantly.

Compliance and Data Protection

  • Adhere to healthcare data regulations (e.g., Australian Privacy Principles) for patient data security.
  • Implement regular security audits and vulnerability assessments.
  • Ensure Medicare and healthcare-specific compliance details are addressed.

Medicare Requirements

(To be developed.)

Cost-Saving Strategies

  • Opt for scalable cloud services to avoid large upfront infrastructure investments.
  • Leverage vendor partnerships for bulk purchasing discounts on equipment and software.
  • Invest in preventive maintenance to reduce long-term operational costs.

Future-Proofing the Practice

  • Plan for scalability by designing an IT environment that accommodates growth.
  • Stay updated on emerging technologies in medical imaging and cybersecurity.

Conclusion

Establishing a successful radiology practice requires thoughtful IT planning and reliable technology investments. By following this guide, practice owners can ensure a secure, efficient, and scalable IT infrastructure that supports their operational goals.

For expert IT solutions tailored to radiology, contact Trucell at support@trucell.com.au or +61 2 8922 9800.

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