CompTIA CDIA+ 5th Edition 225-030

Engage stakeholders to define a strategic view and scope the imaging project with a charter, kickoff, and team roles, then use Gantt, PERT, and network diagrams to manage it.

Outline the strategic view of an imaging system, including objectives, benefits, a hard-dollar business case, and considerations for users, compliance, and security.

Identify the imaging system’s core business drivers, such as faster service and online payments. Target paper-centric processes, engage stakeholders, and pursue quick wins to align imaging with strategy.

Construct the business case weighing hard dollar savings, total cost of ownership, and strategic benefits. Show how electronic invoicing and online payments cut costs and improve cash flow.

Evaluate tactical savings such as postage and operating costs for large volumes. Recognize that space and staffing gains from imaging require careful ROI analysis and may not scale linearly.

Drive productivity and compliance through imaging systems and electronic workflows. Provide simultaneous access to information and online transactions, such as paying traffic tickets or electronic airline ticketing.

Show how electronic pay and imaging systems enforce zip code formats and cross-reference names, while providing access controls and audit trails to protect information and reduce clerical labor.

Apply strategic justification to justify new services and better customer service, reduce time to market with electronic documentation, and boost cash flow through phased backend system integration.

Explore evaluating an existing imaging system by assessing whether an older database or network-stored images can be reused, guided by three key questions to determine usefulness.

Assess whether the existing imaging system is supported and expandable by evaluating hardware, software, database, and network capacity, then plan future upgrades and modular enhancements.

Identify the system’s users and groups, then design the online parking ticket service with web-friendly formats like PDFs and a simple interface to accommodate dial-up users and resistance to change.

Align compliance with laws, regulatory requirements, industry and organizational best practices through cross-functional collaboration, and define security by access, permissions, and document sensitivity.

Develop a robust communications plan that differentiates strategic and operational messaging, tailors updates for executives, managers, workers, and end users, and uses workshops and newsletters to keep everyone informed.

Explore how a simple prioritization matrix guides project decisions by classifying resources, scope, and time as constrained, optimized, or accepted, with Y2K and compliance examples illustrating iron triangle trade-offs.

Explore the project kickoff, define the project team and roles, and explain the project charter and its importance to the imaging project's success.

Authorize the nascent imaging project with a detailed charter, assign resources and roles, define goals and objectives, budget, constraints, and prioritization, and establish the project sponsor and executive review committee.

Identify the project manager as the linchpin driving on-time, on-budget delivery through communication and tradeoff decisions, and capture user perspectives early via sales, support, and prototyping.

Form a peer team from quality assurance, engineering, accounting, and other SMEs to estimate work, agree on goals, and deliver on time; manage time commitments across multiple projects.

Explore the basics of project management, including scope definition and scope creep, iron triangle tradeoffs, project documentation responsibilities, and planning tools like Gantt and PERT charts.

Define the project scope clearly and prevent scope creep that derails budget and time. Apply formal change control, a two-day discovery, and the iron triangle of time, budget, and scope.

Explore the immutable iron triangle of project management, showing how changes to schedule, scope, or resources require compensating adjustments, or quality will suffer as a hidden fourth leg.

Coordinate diverse project users and roles with thorough planning, detailing deliverables, schedules, quality assurance, training, and documentation for an imaging project to keep executives informed and minimize surprises.

Discover how thorough upfront planning—identifying business requirements and decomposing them into functional and technical needs—drives project success and prevents poor performance.

Develop a high-level project plan with schedule, milestones, acceptance criteria, gated delivery, third-party coordination, short detailed tasks, and sponsor sign-off. Define phase milestones as major decision points.

Explore the basics of project management by identifying dependencies to adjust timelines, and understanding convergence points, milestones, decision points, and the critical path to manage risk.

Explore work breakdown structure to define and organize project scope, map deliverables to a schedule with Gantt charts, PERT/CPM, network diagrams, and resource charts for dependencies and resource leveling.

Analyze project management visuals, including Gantt and PERT charts, to map dependencies, milestones, and slack time. Identify the critical path and apply resource leveling to balance roles and costs.

Prevent single points of failure and overbooking by reallocating time, extending schedules only when needed. Undermine projects through poor scoping, scheduling, and lack of communication between project managers, risking firings.

Explain the strategic, tactical, and productivity goals of the project, initiate a kickoff with team makeup and charter, and outline basics of project management, planning, and work process analysis.

Explore business process analysis methodologies, metrics, and gap analysis to set project expectations. Analyze document-centric, paper-centric workflows, document volumes, and usage patterns to inform imaging project design and standards.

Explore how to choose and apply a repeatable methodology to projects, ensuring defined, learnable processes and predictable outcomes while avoiding paralysis of analysis.

Gather metrics to measure and manage processes, starting with an as-is baseline, while ensuring trusted participation and easy data collection that minimizes observation bias.

Gather call center metrics to compute cost per incident and track trends with a seismograph-like chart, then ensure anonymous data collection to prevent behavior changes and improve process insights.

Identify the gap between the current state and desired end state by analyzing document lifecycles and metrics, noting imaging is not a silver bullet, and select solutions to move closer.

Explore how railroad gauge originates from ancient wagon wheel width, tracing back to English roads and chariot spacing. Discover why modern tracks retain that historical gauge.

evaluate current workflows by questioning actions, timings, bottlenecks, and delays; interview power users and newbies, note interdepartmental political considerations, and identify redundancies for change management.

Identify and reduce redundancies in document processing by mapping workflows, counting steps, and streamlining batch, scan, and verification processes through process maps and interviews.

Map processes from interviews to abstract perceptions, focusing on tasks, objects, and triggers like ticket issuance and payments, then automate credit checks and guide imaging solution design.

Model workflow processes from maps to dynamic simulations, identifying bottlenecks, capacity needs, and document volume implications for storage, access, and online versions.

Understand garbage in, garbage out by recognizing how paper quality affects capture, including weight, finish, color, luminosity, glare, and how scanners handle cardstock, heavy forms, and carbon copies.

Explore archival film concepts, including digital storage limitations, microfilm and microfiche, jacketed film with film strips, and computer assisted retrieval using blip codes.

Model information workflow by analyzing volumes, intake patterns, and user retrieval to shape scanning, indexing, and storage decisions, while accounting for handwriting, color highlights, sticky notes, and attachments.

Explore how to categorize documents using series, class, and document type, align retention, owners, and indexing, and standardize index values to improve searchability and cross-system integration.

Assess your current computing environment to plan imaging system implementation and reuse. Evaluate network types, databases, hardware age, and application compatibility to avoid conflicts and ensure expandable, budget-conscious upgrades.

Compare formal standards with informal de facto standards in document management, and see how widely adopted formats like Microsoft Office and Acrobat PDF reduce risk during vendor changes.

Examine key document management standards and organizations, including the open document management api, webdav, the workflow management coalition, and the records management association, noting their iso status.

Establish a foundation in business process analysis by defining methodologies, collecting metrics, applying a gap analysis, and aligning imaging standards to secure stakeholder approval.

Assess stakeholder approval to choose a solution type—comfort zone, minimal, or best practice—documenting functional, technical, and business requirements, risk management, and conceptual design for RFP readiness and budget.

Review the project scope with stakeholders to confirm viability, address scope creep, and decide whether to expand with electronic forms processing, workflow, or document management, considering cost, time, and resources.

Compare minimal solution, comfort zone, component type, and best practice deployments to meet stakeholder needs, aligning imaging, indexing, document management, and workflow capabilities.

Evaluate integrated versus best-of-breed document imaging, weigh cost for large vs small organizations, and define binary, testable requirements covering goals, volumes, web retrieval, security including HIPAA considerations, and Oracle-based environments.

Have stakeholders review the requirements to ensure they make sense and reflect user needs, including indexing, searching, and records retention for legal holds.

Document assumptions and risks with a prioritization matrix to verify resources and timelines. Use the five-step risk management approach from the Software Engineering Institute to identify and rank risks.

Develop and implement a risk management plan that identifies how to avoid risks and mitigate their effects, using backups, cross training, and buffers.

Demonstrates a risk analysis approach using likelihood and impact scales to prioritize threats, then crafts a conceptual design with executive summary, timelines, and tailored stakeholder messaging to guide project decisions.

Define the solution scope, identify affected users and interfaces (web and email), plan ERP/CRM integrations, and evaluate budgets, timing, and cross-department risks.

Assess total cost of ownership by accounting for one-time acquisition costs, licenses, and integration, plus ongoing labor, maintenance, and consumables; compare with benefits to project ROI and payback.

Compare fixed price, time and materials, and not to exceed bids from proposals. Define scope and implement change control to manage risk and avoid scope creep.

Examine how RFIs, RFQs, and RFPs solicit vendor input, outlining project scope, functional requirements, and detailed response instructions to narrow bids and reflect purchasing rules.

Clarify RFP requirements, including in-person delivery, three hard copies plus a CD, a 2 p.m. deadline, and 30 percent recycled paper with 30 percent post-consumer content, to obtain timely proposals.

Recommend the solution to stakeholders, review scope, choose from solution pipes including minimal comfort and best practice, define requirements, manage risk, outline conceptual design and budgets, and select imaging solutions.

Explore imaging technologies and supporting technologies for document imaging, including preparation, resolution, and sizing. Review image enhancement, scanner selection, indexing, displays, printing and faxing impact, and retrieval from storage repositories.

Examine the imaging technologies design phase from analysis to detailed system design, covering document preparation, scanning, quality checks, indexing, and rescans while balancing resources and throughput.

Learn how document preparation drives imaging workflows, from back-file conversion to batching for scanners, including removing staples, sorting by document type, and using separator sheets or patch codes.

Illuminate the document, convert reflections with a CCD into digital data. Apply color thresholding, then store, display QC, and imprint or track with barcodes or Bates numbers before storage.

Perform quality checks during and after scanning to catch jams, double feeds, and skew, using glass work for brittle documents and deciding disposal or retention per regulatory requirements.

Analyze image resolution in document imaging, where dots per inch affect scan speed, file size, and readability on the screen, detailing 200 DPMI for black-and-white and 150 DPMI for color.

Explore image sizing fundamentals, from bits and bytes to greyscale and color depths, and learn bit-byte conversions and 1024-based storage calculations for office imaging.

Calculate image size by multiplying document width and height to get square inches, then apply resolution, color depth, bit-to-byte conversion, and compression ratios (group 3 or 4) for file size.

Calculate the TIFF file size for letter-size documents scanned at 200 dpi by multiplying dimensions and resolution, converting bits to bytes, and applying an average compression ratio.

Convert image sizes from bytes to kilobytes by dividing by 1024, and use the image sizing chart to scale to megabytes or gigabytes.

Compute the size of scanned letter-size TIFFs at 300 dpi by converting bits to bytes and applying group 4 compression; average size is 51.4 kilobytes per image.

apply the image sizing formula to learn how original size, dots per inch, and compression ratio determine file size, and practice with examples from maps to certificates.

Examine common file formats in document imaging, including PTF (Adobe portable document format) and GIF, JPEG, highlighting color support, text layers, OCR, and full-text search.

Explore common file formats for grayscale imaging, including PCI-X as a grayscale standard, uncompressed bitmap storage, and TIFF, the tagged image file format, with group 3 and group 4 compression.

Select file formats based on business requirements and regulatory considerations, prioritizing web-native options such as GIF, JPEG, and bitmap formats, with TIFF as a common alternative.

Learn how image processing boards accelerate cleanup during scanning by handling math-intensive tasks off-board. They rotate, remove noise, and correct skew while io handles headers and file operations.

Explore adaptive thresholding to optimize black-and-white conversion, apply cropping and edge detection to isolate pages, and manage single- or multi-page scans and double feeds.

Correct skew in scanned images to straighten pages for readability and improved ocr accuracy. Apply noise reduction and dithering to reduce speckles and preserve detail during compression and format conversions.

Learn to automatically remove blank pages to save storage using a blank-page size threshold while preserving pagination for mid-document blanks. Explore inverting and rotating to handle landscape scans and texts.

Explore common document imaging techniques like cropping, deskewing, denoising with a five-by-five pattern, and dropout color processing for forms and OCR-ready outputs, including software-based redaction and data extraction.

Learn how image compression works, including ITU group 3 and group 4 lossless codecs and JPEG’s lossy approach, with practical implications for archival storage and image quality.

Explore how scanners connect to the PC through hardware cabling and software driver interfaces, driving the video stream into an image while reviewing available scanner configurations.

Explore common scanner drivers, including ISIS, TWAIN, and VRS from Colfax. Learn how production scanners differ from consumer models and how USB, FireWire, and SCSI interfaces drive performance.

Choose between simplex and duplex scanners based on double-sided needs and dual ccd sensors, then evaluate flatbed, feeder, overhead, and book scanners for fragile or bound documents.

Examine handheld scanner configurations, including 1D/2D barcodes and pen scanners with on-the-fly OCR, and compare media support from paper to microfilm and large format scanners.

Assess scanner needs by evaluating rated throughput speed and actual throughput, noting pages per minute vs images per minute for simplex and duplex, color versus grayscale, and resolution, rescans overhead.

Analyze daily duty cycle, rescanned percentage, and the differences between rated, actual, and daily throughput for scanner planning and selection.

Determine the minimum rated speed for two scanners to handle 50,000 pages on Tuesday within a seven-hour day, equaling about 60 pages per minute per scanner.

Balance average daily volume and peak processing needs when configuring scanners, and plan back file prep and who handles conversion and QC, including simplex and duplex pages.

Design indexing schemes from the start to support numeric, currency, and date fields for range and date searches, and validate with users via prototypes.

Configure scanner rules to validate date fields during invoice data extraction, kick out non-numeric or misread characters, route to human review, and finalize the indexing scheme.

Learn to create index information, perform data entry—heads up or down—use double data entry and barcode recognition with Oracle to populate 35 fields in real time.

Examine optical character recognition basics, including pattern matching, font-family effects, and zone vs full-page OCR. See how adaptive thresholding and accuracy calculations affect field reliability, illustrated by credit card numbers.

Explore intelligent character recognition and voting ensembles to train ocr, use zone ocr templates for real-time indexing, and cover omr and micr with courtesy and legal amount recognition.

Explore barcode recognition for 1d line barcodes and 2d grid barcodes, including patch codes and one-to-one formats. Showcases high accuracy, redundancy, and robustness of 2d codes like PDA 4:17.

Explore how forms processing uses OCR, ICR, and intelligent document recognition with rule-based engines to extract data from structured and semi-structured forms. Automate invoice routing and processing at scale.

Explore output technologies by examining displays and monitors to select the right setup for capture, quality control, and indexing tasks.

Choose monitor size by task, aiming for about 19 inches for data entry and QC of 8.5 by 11 pages, with 800 by 600 resolutions and dot pitch.

Explore how image readability depends on resolution, image flip speed, and refresh rate to reduce eye fatigue and optimize screen performance on modern monitors.

Compute bits and bytes per screen refresh from the 10:24 time 68 image sizing calculation with color depth at 60 hertz, noting data throughput through video channels.

Choose grayscale monitors for office documents to reduce eye fatigue and improve contrast, since grayscale displays are hard to find; use color monitors for redlining or when users prefer color.

Explore how image viewers and toolkits enable viewing various file formats, from CAD drawings to PDFs, with annotations, redaction, and overlays for quality control.

Explain how annotations and redactions are managed as separate layers or linked files, with varying clearance levels, to protect the original document while enabling viewing, printing, and OCR.

Explore output technologies for image and office formats and how printers with graphics processing handle print streams. Decompress at the printer to print large documents quickly and reduce network load.

Explore how faxing supports electronic capture and routing, highlighting standard and fine resolutions, barcode indexing, and metadata for a reliable paper trail and regulatory provenance.

Discover where image and document indexes are stored, how to run queries, and how full text indexing and OCR enable fast search, with reports to export data and analyze usage.

Explore indexing via keyword metadata, profile fields, and OCR, and understand sequel/SQL and ODBC access, data bridges, and file-server challenges in search and data integration.

Explore imaging solution technologies, including document preparation, image resolution and sizing, image enhancement tools, scanner selection, ocr and recognition technologies, displays, printing and network transmission, and retrieval technologies.

Explore storage technologies such as magnetic optical tape and enterprise storage, calculate total storage for images, and outline the technology stack, networking protocols, and network security considerations for imaging integration.

Compare magnetic storage and optical media, covering direct attached storage and RAID robustness, and explain write once versus rewriteable formats and laser technologies such as red and blue lasers.

Compare worm drives and magneto-optical discs, noting deprecated laser video discs and nonstandardized worm drive approaches. Magneto-optical media offer cartridge protection, 9.1 gigabytes of capacity, and high speed.

Explore compact discs, including CD-ROM, CD-R, and CD-RW, their pressing vs burning process, 650–800 MB capacity, and the evidentiary value and retention implications for imaging systems.

Explore the evolution of DVDs, including four point seven gigabyte disks, dual-layer storage, and plus and minus standards. Understand backward compatibility and the shift toward blue laser technologies.

Explore magnetic tape types such as DLT, DJT, and LTL, noting fast write times due to sequential access but slow reads for backups, and the need for non-rewritable storage regulations.

Explore enterprise storage concepts, including content addressable storage with hash-based verification and write-once semantics, and compare network attached storage to storage area networks for large-scale data.

Explore optical libraries and jukeboxes, magnetic and tape libraries, and how automated readers, storage areas, and robotics retrieve media, while learning hierarchical storage management across online, nearline, and offline tiers.

Learn hierarchical storage management moves data from magnetic to near line or offline storage, using 80% thresholds and information lifecycle management rules based on creation, last access, and last update.

We examine jukeboxes as networked storage with optical and magnetic options, their slow performance due to optical media and limited readers, and explore prefetching, optimization, and virtualization to improve access.

Group similar records by retention or access on the same volume, and use virtualization to copy optical data to fast magnetic storage for quicker access and recovery.

Compare magnetic and optical drive configuration and retrieval, highlighting magnetic speed and lower latency, with a 25,000 weekly document example totaling about 22.9 gigabytes for 24 weeks.

Compute total storage for a growing document load using 10% annual growth, 50 kilobytes per document, and a two-year retention that sums year 2 and year 3.

Explore disaster recovery and data redundancy through backups, offsite storage, mirroring, clustering, and distributed imaging systems with synchronization to keep data in sync.

Examine the standard computing environment, from mainframes and dumb terminals to modern distributed computing, terminal emulation, telnet sessions, and remote procedure calls. Learn how client-server models differ from file servers.

Compare the file server paradigm with the client-server model, where the server processes requests and returns only the needed results, enabling scalable, distributed, collaborative computing.

Explore drive configuration and retrieval in modern computing hardware and servers, from cabling to enterprise file, database, application, and print servers, plus storage devices, network-attached storage, and storage area networks.

Explore network types from LAN and WAN to MAN, and how they connect offices via high-speed backbones. Understand the Internet and extranets and how they secure and share data.

Examine networking typologies and the physical architecture, including token ring (deprecated), bus, star, and distributed star topologies. Learn how department-based segmentation and routers and switches enable scalable, reliable networks.

Explore gateways, bridges, routers, and repeaters to connect, segment, and boost networks, and learn how gateways link disparate networks, routers route traffic, bridges segment networks, and repeaters amplify fiber signals.

Examine high-speed networking standards and infrastructure, from T1, T2, T3 to DSL, ISDN, ATM, FDDI, and frame relay, with emphasis on bits per second and deployment context.

Cover core networking protocols and email standards, from IPX/SPX and TCP/IP to SMTP, POP, X.400, and MAPI, and examine how program-to-program and client-server communications operate across networks.

Analyze how imaging workloads, with thousands of images per hour averaging 20-100 kilobytes, impact network bandwidth and learn methods to calculate impact and minimize collisions and congestion.

Move imaging workloads during off-peak hours by locally scanning and using a polling application to transfer images to the imaging server, or use sneaker nets with removable media.

Calculate the network impact of imaging by using two formulas: convert image size to bits and compute bits per second, then compare usage to a 10 megabit ethernet network.

Calculate image transmission time by multiplying image count by size, converting to bits, and dividing by network speed; 50,000 images at 50 KB on 10 Mbps yields about 34 minutes.

Upgrade the network to 768 kbps, resize scans to needed image areas, and use grayscale or occasional color to dramatically reduce file sizes for fast imaging transfers.

Identify security needs in imaging systems by enforcing role-based access at system, folder, document, and field levels, using authentication, audit trails, firewalls, and digital rights management.

Examine the fallout of applying digital rights management to contracts, including 30-day expiry and potential loss of access. Assess DRM at user or role levels and its information-blocking controversy.

Understand public key infrastructure with certificate authorities, encrypting with public/private keys and signing for non repudiation, and use virtual private networks for secure remote access mindful of virus infections.

Explore IPsec and public key infrastructure, RSA and PGP, and how key length affects encryption. See SSL/TLS, LDAP single sign-on with Active Directory, and watermarks to protect intellectual property.

Enable legacy and current apps using imaging options from multi window interfaces to screen scraping and DDE. Understand challenges like data entry errors and fragile live links.

explore how live contact data stays up to date across excel and sharepoint using embedding and database updates, with ole objects into word or powerpoint and related tradeoffs.

Explore how an application programming interface enables imaging integration with view docs and add docs buttons, linking imaging to a CRM without changing the legacy app.

Contrast SGML/HTML with XML, illustrating how HTML blends content, structure, and presentation while XML enables custom tags to describe domain elements such as insurance policies.

Describe magnetic, tape, optical, and enterprise storage options, the imaging system's network impact, and outline an implementation plan covering roles, change management, testing, data migration, and transition to organization support.

Plan for the implementation outlines elements and timeline, prototyping pilots and change management, service level agreement, disaster planning, storage, documentation and training, back-file conversion, and support transition.

Implement the new system in phased releases, engage end users and power users, gain quick wins, uncover process bugs, and proactively manage changes with a formal change control process.

Create and execute an implementation plan covering timeline, hardware and software ordering, integration, and downtime. Define roles, resources, change control, risk mitigation, training, testing, and acceptance criteria.

Define roles and responsibilities for the implementation, establish the final authority and a single point of contact, and set service level agreements to ensure accountable, on-time deployment.

Define service level agreements by classifying issues as minor, severe, or critical, outlining escalation processes and named contacts, with terms taking effect at the end of the implementation.

Prototype to test look and feel and validate key requirements early, then gather user feedback to address critical flaws or omissions and ensure the system meets needs.

A prototype is not ready for prime time and should not run live processes or data. Use pilots to test in the real world and iterate if needed.

Prototype both technology and processes, moving from paper-centric workflows to document imaging, indexing, and online file retrieval. Involve users in testing, refine the process, and foster ownership by incorporating feedback.

Implement a pilot program with a subset of users in a real environment to gather feedback before full go-live. Test in clean-room and live desk settings to uncover issues early.

Examine a failed go-live of a reservation system caused by insufficient pilot testing, and learn how a pilot program lets users experience the real application to avoid heartache during implementation.

Use the pilot to train users and support staff, then have trained users assist coworkers during rollout. Secure management support and set realistic expectations for a pilot that reveals issues.

Apply a formal change control process to assess the impact of changes on scope, time, resources, and documentation, avoiding scope creep while aligning with requirements and business goals.

Implement a formal change control process to manage scope, time, and cost when stakeholders seek changes—like adding a basement—to avoid delays and quality issues.

Address the cultural change in change management when adopting imaging systems, confronting readiness, fear of change, and shifts from file clerks to imaging technicians amid scanning and indexing workflows.

Implement electronic check imaging in banking through change control, weighing law, costs, and savings to overcome resistance and train users toward enterprise adoption.

Align executives, managers, and staff to ensure line of sight alignment and prevent system breakdowns by acknowledging group versus individual focus, navigating organizational politics, and choosing change delivery.

Assesses change impact to tailor change management by culture and readiness, emphasizes honest communication and rumor control, and involves users in training and ownership to implement the new system.

Engage users early to reduce fear, provide training, and run pilots that reveal the system’s benefits. Build momentum by leveraging peer influence and ongoing communication.

Identify critical assets, outline service level agreements with maintenance, escalation contacts, post-implementation costs, backups, and vital records to guide disaster planning and risk management.

Assess offsite storage options and disaster recovery by comparing mirroring, hot sites, and cold sites, then implement a role-based disaster recovery plan.

Prepare rollout documentation by selecting electronic formats over paper, enabling full-text search, hyperlinked navigation, and audit trails. Provide install, configuration, troubleshooting, end-user guides, plus background on imaging and records management.

Preserve project documentation—from plan requirements to implementation and schedule—as a lessons-learned resource for future imaging projects, while training end users, supervisors, and admins to ensure smooth go-live.

Develop a training plan that identifies who is trained, what they learn, when training occurs, and how (on-site or distance video). Assess efficacy and plan refresher training and funding.

Explore testing strategies to validate system readiness, including factory testing, helpdesk testing, load, performance, and stress testing, plus documentation accuracy and burn and acceptance testing to ensure a successful go-live.

Explore back file conversion options, including day forward and scan on demand, and evaluate in-house versus outsourcing with strategies for document preparation and backlog management.

Assess partial conversion by scanning one year of back files; enable on-demand scanning for older items and compare with complete conversion to reclaim space and reduce offsite storage costs.

Evaluate retention periods, statutory requirements, and access needs to decide which documents to convert, weighing in-house versus outsourced scanning, costs, backfiles, indexing, barcodes, and Macur recognition for effective retrieval.

Outline outsourcing the conversion process, covering privacy and security safeguards, auditability, indexing and destruction costs, pre and post tasks, and quality controls for readable, correctly oriented images.

Explain how to outsource to a service bureau, covering delivery options, document prep, indexing, electronic transmission (including fcp or other mechanisms), timelines, vendor responsibilities, quality control, rework, and destruction decisions.

Weigh cost and security when choosing destruction services. Certificates of destruction can mislead, leading to lawsuits; observe the destruction process on-site—shredding, pulverizing, or incineration—to verify records are truly destroyed.

Identify a single internal point of contact to manage support and escalate to vendors or integrators, moving from knowledge base to dedicated expert staff.

Ensure the system is implemented and rolled out, with all users active and acceptance testing completed. Plan in detail, manage budgets, anticipate risks, enforce change control, and keep stakeholders informed.

Outline the implementation plan and timeline, assign roles and responsibilities, apply change control, and address service level agreements, disaster planning, training and documentation, and back-file conversion strategies for go-live readiness.

Review document imaging course, outlining how to start an imaging project, form a team, analyze processes, and plan implementation with hard and soft dollar savings and total cost of ownership.

Equip yourself to pass the CompTIA CDIA+ exam while gaining practical guidance to design, implement, and support a document imaging system for your organization.