Every – lesson comes down to one teacher and some number of students. What's in front of those students – and what's in the way of that teacher – determines more about learning outcomes than most schools want to admit. SumnerOne helps education institutions put the right materials in students' hands, and the rest of the logistics out of teachers' way.
It's not a hunch. It's not nostalgia. It's been measured across dozens of peer-reviewed studies, tens of thousands of students, and more than two decades of comparative research – and the finding is consistent: students comprehend and retain information better when they read it on paper than when they read it on a screen.
Researchers call it the "screen inferiority effect." And it's not subtle.
Reading on paper produces deeper comprehension. A landmark meta-analysis covering more than 171,000 participants confirmed a clear comprehension advantage for print over screens – an advantage that's strongest for exactly the kind of material schools produce: informational text, instructional content, expository writing. The type of reading that requires genuine understanding, not just recognition.
Screen reading rewires how students process information. Eye-tracking research shows that screen readers skim. They scan headlines, skip paragraphs, and skim toward the end – conditioned by years of social feeds and infinite scroll. Print readers slow down. They re-read difficult passages. They annotate. They stop. The same student, with the same content, reads differently depending on the medium – and performs differently on what comes after.
The effect is stronger for students who need it most. For students with learning differences – dyslexia, ADHD, processing disorders, working memory challenges – the comprehension loss from screen reading isn't marginal. It's significant. Well-formatted printed materials, with appropriate font size, line spacing, color contrast, and visual organization, are among the most effective interventions available. Not in addition to other supports – often in place of more expensive ones.
And it's not just about reading. Research on cognitive load confirms that color and visual organization in printed instructional materials reduce mental effort and improve retention. A workbook with color-coded sections, a course packet with tabbed chapters, an assessment with clear visual hierarchy – these aren't design choices. They're learning science decisions.
This is what SumnerOne brings to an education partnership that no print vendor alone can offer: not just the capability to produce these materials, but the understanding of why they matter.
| Factor | Screen | |
|---|---|---|
| Reading comprehension | Consistently higher across meta-analyses covering 171,000+ participants | Lower, particularly for informational and expository text |
| Depth of processing | Readers slow down, re-read, annotate – deeper encoding | Readers skim, scan, and satisfice – shallow processing is the default |
| Metacognitive accuracy | Readers accurately judge what they understood | Readers overestimate their comprehension – they think they got it |
| Retention over time | Higher recall of key information | Faster forgetting, especially for complex content |
| Cognitive effort required | 21% less cognitive effort (Canada Post neuroscience study) |
Higher cognitive load, more mental energy spent on navigation |
| Effect under time pressure | Advantage holds or strengthens | Performance declines more sharply |
| Students with learning differences | Significant advantage – formatted print reduces cognitive overload | Compounded difficulty – screen reading amplifies processing challenges |
| Academic integrity | Verifiable, proctored, AI-proof | Vulnerable to AI-assisted cheating; difficult to verify authorship |
| Student preference for serious study | 71–87% of students prefer print for academic coursework (multiple surveys) | Preferred for casual reading, social content, quick reference |
Sources: Clinton (2019), Journal of Research in Reading; Kong, Seo & Zhai (2018), Computers & Education; Delgado et al. (2018), Educational Research Review; Canada Post neuroscience study; Naomi Baron (2021), American University; EDUCAUSE (2022)
Here's what differentiated instruction looks like in practice: a fourth-grade teacher needs 28 copies of a reading passage. But not the same passage. She needs six copies at grade level, eight at a modified vocabulary level, five in large print for students with visual processing differences, four with simplified syntax for her ELL students, and five with additional graphic supports for students whose IEPs specify visual anchoring. All of them needed by 8:30 AM Thursday.
That's not an edge case. According to Canon's education research, the majority of K–12 printed materials are now personalized to some degree. Differentiated instruction has moved from pedagogical ideal to operational reality – and the print infrastructure most districts are still running hasn't caught up.
The IEP is a legal document. The print accommodation is a legal obligation.
When a student's Individualized Education Program specifies large print, modified formatting, or high-contrast materials, that specification isn't a suggestion. It's a requirement under IDEA – the Individuals with Disabilities Education Act. Failure to consistently provide accommodation-specified print formats isn't an oversight. It's a potential civil rights violation, subject to OCR complaints and due process proceedings.
Approximately 7.5 million students – about 15 percent of public school enrollment – receive special education services. The most common disability categories all carry high correlations with print accommodation needs. And beyond IEP students, an estimated one in five students has a learning difference that would benefit from modified print formats, whether or not they carry a formal diagnosis.
Most districts are meeting these obligations imperfectly, inconsistently, and at significant labor cost – teachers modifying materials by hand, special ed coordinators printing one page at a time on whatever happens to be working in the building that morning.
RTI and MTSS move at the speed of students. Your print shop needs to keep up.
Response to Intervention and Multi-Tiered System of Supports frameworks require small-group and individual instruction using materials tailored to each tier of support. Tier 2 and Tier 3 intervention packets are updated frequently – sometimes weekly – as students progress, plateau, or require adjusted supports. They're produced in quantities of three to six. They're needed immediately.
No commercial print shop has a workflow that handles this. No offset printer runs batches of five. This is a short-run, on-demand, teacher-directed production problem – and the district in-plant, properly equipped, is the only entity positioned to solve it.
What's possible now – in your building.
The Kyocera TASKalfa Pro 15000c changes the economics of this conversation. As a production inkjet platform – not toner – the cost-per-page is dramatically lower than traditional color production equipment. That means the color charts and visual supports that were previously cost-prohibitive, the ones teachers were stripping out to stay within color budgets, are now affordable at the volume a district actually runs.
What it produces: color workbooks with tabbed sections, large-print materials at true production quality, saddle-stitched packets ready for distribution, and IEP accommodation sets that look professionally printed – because they are. Finished before the teacher walks in Thursday morning.
And it handles everything from 56gsm thin worksheet stock to 360gsm card stock for certificates and covers, without a media changeover between jobs.
The workflow that makes it repeatable.
A well-equipped in-plant isn't just a machine. It's a system. Teacher submits a request through a digital front-end – OnPrintShop, webCRD, PageDNA, or a similar platform. The job routes to the appropriate queue. The in-plant operator runs it, finishes it, delivers it. No phone calls. No "stop by and talk to someone." A reliable, documented workflow that teachers use because it's easier than trying to get 28 copies of five different reading passages from a building copier before first period.
Sixty-five percent of college students have avoided purchasing a required textbook because of cost. Of those, 94 percent said it negatively affected their grade. One in three students has failed a course, dropped a course, or received a lower grade specifically because they couldn't afford the required materials.
The textbook affordability crisis is not a new story. But the institutional response to it is newer than most people realize – and it creates an opening that very few universities have fully closed.
Open Educational Resources are free to download. They're not free to use.
Open Educational Resources – textbooks, course readers, lab manuals, and other learning materials released under Creative Commons licensing – are produced by institutions like OpenStax at Rice University, LibreTexts, and Pressbooks. Peer-reviewed, faculty-adopted, freely available. OpenStax alone is now used by more than 6.9 million students annually at over 5,000 institutions, with estimated student savings exceeding $1.8 billion since 2012.
The problem is delivery. When a faculty member adopts an OER textbook and tells students to download it, the results are predictably uneven: some students print it themselves, producing 400 pages of inconsistent quality from a dormitory printer. Some read it on a laptop, suffering the comprehension losses the screen inferiority research documents in detail. Some don't engage with it at all.
The missing piece is an institution that says: "You found the content. We'll produce it." A bound, tabbed, professionally finished course reader. Available in any quantity, on any timeline, for a fraction of the cost of the commercial textbook it replaces.
| Factor | OER – Printed In-House | Commercial Textbook | Digital-Only OER |
|---|---|---|---|
| Cost to student | $12–18 (production cost) | $180–240 (average retail) | $0 download; student prints inconsistently or reads on screen |
| Cost to institution | Equipment + labor; no per-unit royalty | Per-unit purchase or license fee | None – but comprehension outcomes suffer |
| Student comprehension outcomes | Equivalent to or better than commercial textbook | Established baseline | Lower – screen inferiority effect applies equally to free content |
| Faculty update flexibility | Update between semesters at no additional cost; any quantity | Locked to publisher edition and release cycle | Instant digital update; print production requires re-run |
| Minimum print run | None – produce exactly what's needed | Publisher minimum or bookstore order | N/A |
| Institutional control | Full – content, format, binding, quantity | None | Full over content; no control over how students access it |
| Academic integrity support | Physical, annotatable, proctoring-compatible | Physical | Vulnerable to AI-assisted work; screen reading reduces engagement |
| Environmental impact | Print on demand – no overrun waste | Overproduction common; returns and remainders | Lowest print footprint; device energy consumption ongoing |
|
Student D/F/W rates |
Lower – access removes cost barrier; print improves comprehension | Baseline | Mixed – access improves but screen comprehension losses offset gains |
Sources: College Board (2023); Florida Virtual Campus OER Survey (2023); University of Georgia D/F/W study (2022); Affordable Learning Georgia; OpenStax institutional data (2024); screen inferiority effect meta-analyses
The OER-to-print workflow requires expertise. Here's what that looks like.
Getting from an OpenStax PDF to a production-ready bound course reader is not a simple click-to-print operation. It requires knowing the difference between a digital PDF and a print-ready PDF. It means understanding creep compensation – what happens to inner pages of a thick saddle-stitched or perfect-bound book when they push outward and text gets swallowed by the binding. It means knowing that OER images are often 72 or 150 dpi – optimized for screen, not press – and having a preflight workflow that catches resolution issues before a faculty member sees pixelated charts on their students' course readers.
Institutions that have figured this out – Oregon State University, the University of Georgia's Bulldog Print + Design, and others participating in state-level OER affordability initiatives – have built documented, repeatable workflows to do it. SumnerOne brings that expertise to the institutions we serve.
The path from OER source file to production-ready print is navigable – but it requires knowing where it breaks. Institutions that have built this workflow, including Oregon State University and the University of Georgia's Bulldog Print + Design, have documented repeatable processes for getting from an OpenStax or Pressbooks export to a finished, bound course reader. SumnerOne brings that expertise so institutions don't have to discover the friction points themselves.
[The step-by-step OER-to-print production workflow – platform export settings, Fiery Impose configuration, preflight templates, creep compensation, and cover spine calculation – is the subject of a forthcoming TAYA article: "How to Build an OER-to-Print Pipeline at Your University."]
Students who can afford their materials perform better. The research is unambiguous.
A 2022 study at the University of Georgia found that OER adoption in introductory courses was associated with a 4.3 percent reduction in D/F/W rates – drops, failures, and withdrawals – attributed largely to eliminating the cost barrier that caused students to delay or skip purchasing required materials. The Affordable Learning Georgia initiative has saved students more than $156 million since 2013.
And here's what the research adds that the affordability conversation usually misses: students reading printed materials – even OER materials, produced in-house at low cost – comprehend more than students reading the same content on screens. The case for printed OER isn't just economic. It's pedagogical. Your students learn more from a $15 bound course reader than from a PDF on a laptop, even when the words are identical.
Paper-based assessment in the AI era.
Something significant is happening on university campuses right now that most administrators are still responding to reactively. Blue book sales were up 30 percent at Texas A&M, 50 percent at the University of Florida, and 80 percent at the University of California, Berkeley over the past two academic years. UW-Madison ran out of them entirely at the start of fall 2024, with a three-week backorder.
The reason is not nostalgia. A 2025 HEPI survey found that 88 percent of college students now use generative AI tools for assessments – up from 53 percent the previous year. A survey of 337 higher education leaders found that 59 percent believe academic cheating has increased significantly since AI became widely available, and 54 percent said faculty are not effective at identifying AI-generated work.
The institutional response is a return to paper: printed exam booklets, in-class written assessments, handwritten lab reports, structured response packets. As one UW-Madison professor who made the switch put it, returning to paper exams was "a better use of my grading time and my TAs' time – so that they're not spending all this time doing detective work about academic dishonesty and putting time back into meaningful feedback."
Paper-based assessment is becoming institutional infrastructure. The print shop that can reliably produce exam booklets and assessment materials at scale, on short notice, for exam seasons that come with their own deadline pressure – that shop is part of the university's academic integrity response. SumnerOne's service model, including facilities management for institutions that want a fully staffed in-plant, is built for exactly this kind of operational criticality.
The other half is making sure the people responsible for learning aren't buried in logistics they never should have been managing.
Teachers lose hours to broken printers. Admin staff spend mornings chasing paper jams. IT coordinators field device swap requests that should be self-service. A curriculum director who could be coaching teachers on differentiated instruction is instead coordinating supply orders and fielding complaints about the copy machine on the second floor. None of this is teaching. None of it should be anyone's full-time problem.
SumnerOne approaches educational institutions as complete operational environments – not just classrooms and in-plants, but the full infrastructure that either supports the teaching relationship or drains it.
Managed print that doesn't wait for something to break.
A broken printer in a school is a broken lesson. It's a teacher improvising at 8:15 AM. It's substitute materials that weren't designed for today's objective. It's a prep period spent at the machine instead of on next week's unit.
Our managed fleet approach for education environments is built around the same principle as our enterprise MPS: the best service interaction is the one you never know happened. Remote monitoring and predictive analytics catch issues before they affect a classroom. When a technician does need to come in, they arrive knowing what's wrong and carrying the part to fix it. No hold music. No ticket queue. No "we'll come back with the right part next week."
One fleet. One service relationship. One team that owns it – across every device in the building.
Mailing and distribution without the manual bottleneck.
Schools and districts still produce significant physical mail – materials that need to be folded, inserted, sealed, and metered before they leave the building. In most institutions, this happens manually: a stack of envelopes, a folding table, and whoever can be pressed into service.
Automated mailing solutions – folding, inserting, and metering equipment that handles the production work in a fraction of the time – are underused in education environments precisely because nobody has made the connection between a print shop conversation and an administrative efficiency conversation. SumnerOne makes that connection.
IoT smart lockers for frictionless materials exchange.
One of the highest-friction points in K–12 and higher ed support is the physical handoff of materials and devices – a student needs a replacement Chromebook, a library book needs to be picked up between periods, an IEP accommodation packet needs to reach a student or parent without requiring a staff member to track down the right person at the right moment.
Smart locker systems – connected, managed, access-controlled – change this entirely. A student requests a library resource online; library staff load it into the locker and the student picks it up between periods without waiting at a desk, without interrupting a librarian mid-class, without drifting by and hoping someone's there. A damaged device goes into the locker at check-in; a replacement comes out. An IEP packet or other sensitive document gets delivered directly to the student or a waiting parent, logged, chain-of-custody documented, without the coordination overhead that currently falls on counselors and special education coordinators.
For schools managing hundreds or thousands of daily material and device interactions, smart lockers aren't a convenience. They're a structural shift in how support flows – and they return the staff who were managing those interactions to work that actually requires their professional judgment.
The outcome, simply stated.
Teachers get their time back. Admin staff get relief from logistics they shouldn't own. IT coordinators stop spending their days as human dropboxes. And the institutional energy that was going into managing friction goes instead into the one-to-one and one-to-many relationships that education actually runs on.
The capability story for education has shifted dramatically in the past five years. What used to require a dedicated commercial print shop, specialized operators, and equipment most institutions couldn't afford or justify is now achievable in-house – with the right machine and a partner who knows how to deploy and support it.
The Kyocera TASKalfa Pro 15000c: the curriculum production engine.
SumnerOne's primary recommendation for K–12 and higher ed curriculum production is the Kyocera TASKalfa Pro 15000c – a production inkjet platform that Kyocera has explicitly positioned as a disruptor for education in-plants.
The economic case: inkjet at this level produces color at a cost-per-page that is dramatically more favorable than toner production equipment. That's the shift that districts like Placentia-Yorba Linda Unified experienced when they moved curriculum and workbook production in-house – color charts and graphics that had previously been stripped out to manage click fees suddenly became routine output. In their first few months on the 15000c, they printed 840,000 pages. Color, curriculum-quality, finished in-house.
The media range runs from 56gsm thin worksheet stock to 360gsm for covers and certificates – the full spectrum of what K–12 and higher ed in-plants need to produce, without media changeovers between jobs. Uptime is 90-plus percent, compared to an industry average of roughly 60 percent for toner devices. Fewer moving parts, less maintenance, fewer paper jam delays. Exam season is not the moment for downtime.
Finishing includes saddle-stitch and stapling – covering the large majority of curriculum production use cases. For course readers requiring perfect binding or spiral finishing, our toner machine portfolio steps in.
The 15000c integrates with MyQ and other secure print software for FERPA-compliant print workflows – relevant for any institution handling student records in the production environment.
For our customers, this isn't theoretical.
My Father's World, a Missouri-based homeschool curriculum publisher and a direct SumnerOne account, moved to the 15000c and cut color printing costs by 50 percent while increasing the number of color pages in their curriculum. The result was both higher-quality materials for their customers and stronger margins for their business. We know this machine. We know what it does in production environments like theirs – because we're the ones who placed it, support it, and stand behind it.
How we work with education institutions.
SumnerOne supports education in-plants in two primary models:
Equipment and service: We place and maintain the equipment. The institution's own staff operates the in-plant. Our team ensures the machines perform, supplies are managed, and service is handled before it becomes a disruption.
Facilities management: For institutions that want a fully staffed in-plant without the overhead of running one themselves, SumnerOne embeds an operator team into the facility. You get a fully functional, professionally managed print operation without the HR burden of building and maintaining one.
Both models come with the same commitment: the in-plant works when you need it to, and you have a partner who already knows the friction points – in OER file preparation, in compliance documentation, in exam-season volume – so you don't have to discover them yourself.
The accessibility truth.
You don't need a commercial print shop to produce professional-quality curriculum materials. You need the right machine, a front-end submission workflow that teachers and faculty can actually use, and a partner who shows your team how to run it. The rest follows.
Every institution's situation is different. The district managing IEP accommodations for 400 students across eight buildings has different priorities than the regional university trying to get 1,200 students a bound OER course reader before the first week of classes. Both conversations start the same way: we learn about your environment, your workflows, and the specific materials your students and teachers need. Then we show you what's possible – on your timeline, in your building, with equipment and support designed to make it work.
We've been doing this in Missouri and across the Midwest for over 70 years. We know these environments, we know this equipment, and we know how to make the connection between what you're trying to accomplish and what the technology actually does