EME3410: Integrating Technology in the Classroom

Course Description

EME3410 Integrating Technology in the Classroom is the education course on using technology to improve learning — deciding when it helps, selecting it for a purpose, and using it competently and lawfully.

The course is offered at approximately five Florida institutions, including Broward College, the College of the Florida Keys, Indian River State College, Northwest Florida State College and the University of West Florida.

⚠ The scope varies substantially between institutions, and this is the most important thing on this page. Broward College carries it as EME3410 Enhancing Mathematics and Science Education with Technology Applications at 3 credits and 48 contact hours, requiring EDF 3280 with a minimum grade of C, and describes a course exploring the interaction of K-12 mathematics and science content, technology that supports mathematics and science teaching and learning, and the cognitive and social processes of learning that yield maximum learning opportunities for all students, in which students identify technologies that align with student intellectual abilities and learning styles in mathematics and science, incorporate inquiry-based learning with technology, and discover the interdisciplinary connections between mathematics, science and technology.

The statewide title names a general course; Broward's names a mathematics and science course. That divergence is set out in Special Information and it materially affects who should take which version.

The course's governing principle, and the one that separates a good section from a bad one, is that the technology is not the point. A course organised around tools teaches applications that will be obsolete in five years. A course organised around learning asks what a student needs to understand, what makes that difficult, and whether a technology addresses the difficulty — and that question survives every change of platform.

The second principle is that the evidence on educational technology is more equivocal than its marketing. Meta-analyses generally find modest average effects with very large variation, and the variation is explained by how the technology was used rather than by which technology it was. The consistent finding is that technology helps when it does something instruction could not otherwise do — makes an invisible process visible, provides immediate feedback, allows manipulation of a model — and does little when it substitutes for something that worked. A teacher who knows that is a better buyer and a better user than one who does not.

Broward's framing makes a further and stronger claim worth noticing: the course is about the interaction of content, technology and how learning works. That is essentially the TPACK position — that effective use requires content knowledge, pedagogical knowledge and technological knowledge together, and that none of the three alone suffices. It is the field's organising framework and it is worth learning by name.

Learning Outcomes

Required Outcomes

• Apply a framework for technology integration — TPACK, SAMR or equivalent — to instructional decisions.
• Evaluate whether a technology serves a learning objective and justify the decision.
• Align technology-supported activities with Florida's academic standards and with the ISTE Standards for Students and Educators.
• Design lessons that integrate technology purposefully rather than decoratively.
• Select and evaluate digital resources for accuracy, bias, cost, privacy and instructional quality.
• Use a learning management system and the standard classroom productivity and collaboration tools.
• Use technology for formative assessment and to act on the resulting data.
• Apply Universal Design for Learning and use technology to increase access.
• Apply assistive and accessible technology for students with disabilities, and meet accessibility requirements in materials you create.
• Support multilingual learners with appropriate technology.
• Apply copyright, fair use and licensing to classroom materials.
• Apply student data privacy law and practice, including FERPA and COPPA.
• Teach and model digital citizenship — safety, footprint, evaluation of sources and responsible conduct.
• Manage a technology-supported classroom, including devices, access and troubleshooting.
• Address equity of access and design instruction that does not depend on resources some students lack.
• Create instructional media — presentation, video, graphic or interactive — to a professional standard.
• Reflect on and document your own developing practice.

Optional Outcomes

• Apply mathematics-specific technologies — dynamic geometry, graphing and computer algebra tools (Broward's emphasis).
• Apply science-specific technologies — probeware and data logging, simulations, virtual laboratories (Broward's emphasis).
• Apply computational thinking and introductory coding in a subject context.
• Design blended or online instruction.
• Apply gamification and game-based learning critically.
• Apply makerspace, robotics or 3D printing in instruction.
• Analyse educational data and dashboards.
• Pursue a technology certification or badge.
• Design professional development for colleagues.

Major Topics

Required Topics

• Frameworks for deciding. TPACK — the intersection of technological, pedagogical and content knowledge, and the argument that expertise in any one alone produces poor integration; SAMR — substitution, augmentation, modification, redefinition — as a useful ladder with the honest caveat that "higher" is not automatically better and that substitution is frequently the right choice; the ISTE Standards for Students and for Educators; the central question the course keeps returning to: what does this technology let students do or understand that they could not otherwise? — and the willingness to answer "nothing, so don't use it."
• How learning works, as the basis for the choices. Cognitive load and the design implication that decorative multimedia can impair learning; multimedia learning principles — the well-replicated findings about combining words and pictures, redundancy and coherence — which are among the best-supported results in instructional design and are routinely violated by commercial products; retrieval practice and spaced practice, which technology supports well; feedback timing; active versus passive use, and the consistent finding that students creating with a technology learn more than students consuming through one; motivation and engagement, with the caution that engagement is not learning and that a class enjoying an activity may be learning nothing; ⚠ learning styles — Broward's description mentions them, and honesty requires noting that the "matching hypothesis" (that teaching to a preferred modality improves learning) is not supported by the evidence, while the underlying good practice — presenting material in multiple representations, which UDL recommends for different reasons — is well supported. A good course makes that distinction.
• Standards and planning. Florida's academic standards and how a lesson is aligned to them; backward design — objective, then assessment, then activity, then tool, in that order, which is the discipline that prevents technology-first planning; lesson and unit planning with technology; the practical test that if you cannot state the objective without naming the tool, the tool is driving the lesson.
• The working toolkit. Learning management systems — Canvas, Schoology and the platforms Florida districts actually use; productivity and collaboration suites; presentation and interactive display; formative assessment tools — polling, quizzing and response systems — and the point that their value is the immediate data and what you do with it, not the novelty; content creation — video, screencast, graphics, podcast; communication with families; digital portfolios.
• Subject-specific technologies (the emphasis in Broward's version). Mathematics — dynamic geometry software, graphing tools and computer algebra systems, and the specific pedagogical value of dynamic representation: dragging a construction and watching what stays invariant is an argument about a theorem that static figures cannot make; virtual manipulatives; the standing question of when a calculator supports and when it substitutes for understanding. Science — probeware and data logging, which let students collect real data at a timescale and precision that hand measurement cannot, and which shift laboratory time from recording to interpreting; simulations, and where they beat physical laboratories (dangerous, expensive, invisible or slow phenomena) and where they do not (developing measurement skill and handling real messy data); virtual laboratories; inquiry-based learning supported by technology, which Broward names explicitly; interdisciplinary mathematics-science-technology connections.
• Assessment and data. Formative and summative assessment with technology; item quality; immediate feedback and its documented effect; adaptive and personalised systems, evaluated rather than assumed; data dashboards and the practical skill of reading one; using assessment data to change instruction, which is the point and the step most often omitted; the caution that measuring what is easy to measure distorts what is taught.
• Access, disability and language. Universal Design for Learning — multiple means of representation, action and expression, engagement — as a design stance rather than a retrofit; assistive technology — text-to-speech, speech-to-text, magnification, switch access, communication devices — and the legal fact that assistive technology is considered in the IEP process; making your own materials accessible — captions, alternative text, semantic headings, contrast, and not conveying meaning by colour alone; multilingual learners and translation, glossing and multimodal support, with the caution that machine translation of academic content is uneven; and the point recorded throughout this repository that accessible design benefits far more students than the population it targets.
• ⚠ Law and policy — the part with consequences. Copyright and fair use in education, and the specific and widely misunderstood point that "it's for a class" is not a blanket permission; the TEACH Act in outline; Creative Commons and open educational resources as the practical solution; FERPA and the confidentiality of student records, including what may be posted, shared or displayed; COPPA and the requirement of parental consent for services collecting data from children under thirteen, which is why districts approve tools centrally and why a teacher must not simply sign a class up for a service; Florida's student data privacy provisions; acceptable use policies; the professional rule: use district-approved tools, and route a request for a new one through the district process.
• Digital citizenship and safety. Online safety and the reporting obligations that attach to a teacher; cyberbullying; digital footprint and reputation; information literacy and source evaluation, including lateral reading as the technique that works; misinformation and manipulated media; screen time and wellbeing, discussed with evidence; the teacher's own professional digital conduct, including social media, which is a real and recurring cause of employment difficulty.
• ⚠ Equity. The digital divide — device access, home connectivity, and the second-level divide in skills and support, which persists after hardware is distributed; designing so that an assignment does not require resources some students lack, which is a concrete planning discipline rather than a sentiment; the differential ways technology is used across schools, where students in better-resourced settings more often create and those in less-resourced settings more often drill; rural connectivity, which is a live Florida issue; cost as an equity variable.
• Classroom practice. Managing devices and transitions; procedures and expectations for technology use, established before the devices appear; troubleshooting the common failures; the professional habit of having a plan for when the technology does not work, because it will; substitute-proof planning; technical support structures in a school; professional learning and how a teacher keeps current after the degree.

Optional Topics

• Computational thinking and coding integrated into a subject.
• Robotics, makerspaces and 3D printing.
• Blended, flipped and online instruction.
• Game-based learning and gamification, assessed against evidence.
• Virtual and augmented reality in instruction.
• Learning analytics and educational data.
• Vendor certifications and educator badges.
• Designing professional development for colleagues.
• Grant writing for classroom technology.

Resources & Tools

• Integrating Educational Technology into Teaching by Roblyer and Hughes — the standard textbook for this course, framework-driven and subject-organised.
• Teaching and Learning with Technology by Lever-Duffy and McDonald; Technology Integration for Meaningful Classroom Use by Cennamo, Ross and Ertmer — the last built explicitly around standards and TPACK.
• Multimedia Learning by Richard Mayer — the evidence base for how to design instructional media, and the source of the principles that commercial products routinely violate. Worth knowing even in summary.
• Make It Stick by Brown, Roediger and McDaniel — the accessible account of retrieval and spaced practice, which is what much good educational technology operationalises.
• Free and authoritative:
  • ISTE Standards for Students and for Educators — free, and the field's reference framework; Florida educator preparation programmes align to them.
  • CAST — the originators of Universal Design for Learning; the UDL Guidelines are free and are the practical reference.
  • Common Sense Education — free digital citizenship curriculum and independent reviews of educational tools, and one of the genuinely useful free resources in this field; its privacy evaluations of apps are unusually rigorous.
  • PhET Interactive Simulations (Colorado) — free, research-based science and mathematics simulations, and the single best free resource for the science and mathematics emphasis; GeoGebra and Desmos for mathematics, both free and both excellent.
  • OER Commons, CK-12 and Khan Academy for open resources; Creative Commons for licensing.
  • The What Works Clearinghouse (Institute of Education Sciences) — independent evaluations of educational interventions, and the corrective to vendor claims.
• Florida-specific: CPALMS — Florida's official standards and instructional resource repository, free, and the place Florida teachers actually plan from; the Florida Department of Education technology and standards pages; district technology plans and approved-tool lists, which are usually public and are worth reading to see how the approval process works in practice.
• Accessibility checking: WAVE and the built-in accessibility checkers in the productivity suites; the WebAIM contrast checker; automatic captioning, which must be corrected rather than trusted.
• Professional organisations: ISTE, with student membership; the Florida Educational Technology Conference (FETC), one of the largest educational technology conferences in the country and held in Florida annually — student rates exist and attending is a concrete professional advantage; the Florida Association for Media in Education.

Career Pathways

• Elementary, Middle and Secondary School Teachers (SOC 25-2021, 25-2022, 25-2031) — the destination for nearly everyone in this course, and technology integration is an expected competency rather than a speciality.
• Mathematics and science teachers specifically — both are persistent Florida critical shortage areas, and the Broward version of this course is aimed directly at them.
• Instructional Coordinators (SOC 25-9031) — district technology integration specialists, instructional coaches and curriculum staff; reached after classroom experience and a common next step for teachers with this strength.
• Instructional Designers (SOC 25-9031) — a substantial field outside K-12: universities, healthcare systems, corporations and government all employ them, and the pay is generally better than classroom teaching. Florida's large institutions are significant employers.
• Educational technology specialists in schools and districts; library media specialists (SOC 25-4022), which requires additional certification in Florida.
• Training and Development Specialists (SOC 13-1151) — corporate learning, where the same design principles apply.
• Educational publishing and edtech — content development, curriculum design and product roles, where teaching experience is a genuine qualification and companies actively recruit for it.
• School and district administration (SOC 11-9032) — with additional certification.
• Graduate study in instructional design and technology, curriculum, or educational leadership.

⚠ The Florida certification point, which every education student needs. A degree does not confer a teaching certificate. Florida certification requires a state-approved programme or an alternative route, the Florida Teacher Certification Examinations (General Knowledge, Professional Education, and a Subject Area Examination), background screening, and application to the Department of Education. Mathematics and science are critical shortage areas, which affects loan forgiveness eligibility and hiring.

And a practical one specific to this course: technology competence is a genuine differentiator in hiring and in early-career advancement. A new teacher who can integrate technology well, help colleagues, and speak sensibly about what works becomes the person a school leans on — which leads to coaching and coordinator roles. Keep the lesson plans and materials you build in this course; they are the beginning of a teaching portfolio, and Florida districts frequently ask to see one.

Special Information

⚠⚠ The scope divergence is the headline — general course or mathematics and science course?

Source	Title	Scope
statewide	Integrating Technology in the Classroom	General — any subject, any level
Broward	Enhancing Mathematics and Science Education with Technology Applications	K-12 mathematics and science specifically, with inquiry-based learning and interdisciplinary STEM connections

Both are 3 credits and both are legitimate designs, but they are not interchangeable for every student.

The mathematics and science version is the deeper course for those subjects. Dynamic geometry, graphing technology, probeware and simulation are genuinely subject-specific tools with genuinely subject-specific pedagogy, and a general survey cannot treat them properly. An elementary education major, an English education major or a social studies education major will find a substantial part of it aimed elsewhere.

The general version serves everyone adequately and no one deeply.

⚠ What to do. Read the description rather than the title, and confirm with an adviser that the version your institution offers satisfies your programme's requirement. For transfer students this matters: the credit transfers automatically under SCNS, but a student who completed the mathematics and science version and transfers into an elementary education programme has covered a different course than the requirement assumes — and the reverse also applies. Keep the syllabus.

⚠ Prerequisites and the educator preparation gate

Broward requires EDF 3280 with a minimum grade of C. That is typically a foundations course covering learning theory or the diverse classroom, and it is the right gate: the course's central question — does this technology serve learning? — cannot be answered without a model of how learning works.

⚠ Note the minimum grade condition, which is common in education sequences and is enforced.

And the recurring structural point recorded throughout this repository for education courses: admission to the educator preparation programme is a separate application from admission to the institution, generally requiring a minimum grade point average, passing scores on the General Knowledge Test, and background screening — and it gates the professional sequence. Apply in the sophomore year, not in the term you need the course.

⚠ A further gate specific to state colleges, which several of this course's institutions are: upper-division courses at Florida state colleges are frequently restricted to students admitted to the bachelor's programme, which is again a separate application. Confirm early.

Position in the curriculum and course format

EME3410 is an upper-division education course, normally taken in the junior year within the professional sequence, after foundations and alongside or before the methods courses. It is required in most Florida educator preparation programmes.

Taught as a hands-on course — necessarily, since the outcomes are performances — with assessment normally combining technology-integrated lesson plans, created instructional artefacts (a video, a website, an interactive resource), tool evaluations, a portfolio, and examinations on the frameworks and the law.

Expect four to seven hours a week outside class. The reading is moderate; the production assignments are the workload, and creating a genuinely good instructional video or interactive resource takes longer than students plan for.

⚠ Three practical points. Check the device and software requirements before the term — some sections require a laptop rather than a tablet, and some use specific software. Save everything in a portfolio as you go; these artefacts are usable in student teaching, in interviews and as competency evidence. And if the course includes a field component, arrange it early, since school placements require lead time and background screening.

⚠ Two evidence points worth carrying out of the course

On learning styles. Broward's description mentions aligning technology with "learning styles", and this is worth handling honestly because it appears widely in education materials. The specific claim that matching instruction to a student's preferred modality improves learning — the "meshing hypothesis" — has been tested repeatedly and is not supported. Students do have preferences; teaching to them does not measurably improve outcomes. What is well supported, and is what good practice actually looks like, is presenting material in multiple representations for all students — which is precisely what Universal Design for Learning recommends, for reasons about access and flexibility rather than about matching. A well-taught section makes this distinction, and a teacher who can make it is better equipped to evaluate a product pitched on learning-styles claims.

On technology effects generally. The average effect of educational technology in meta-analyses is modest, and the variation around it is enormous. The variation is explained by implementation rather than by product. The practical consequence for a teacher is scepticism toward vendor claims and attention to the What Works Clearinghouse and independent evaluation — and the recognition that a district's purchasing decision frequently has more to do with procurement than with evidence.

⚠ Law and privacy: the parts a new teacher gets wrong

These recur and carry real consequences:

• "It's for education" is not a copyright exemption. Fair use is a four-factor analysis, not a blanket permission, and showing a film, copying a workbook or posting a scanned chapter can exceed it. Open educational resources and Creative Commons material are the practical answer and are abundant.
• Do not sign your class up for a service on your own initiative. COPPA requires verifiable parental consent for services collecting data from children under thirteen, and districts obtain that consent centrally through approved-vendor agreements. A teacher who creates accounts on an unapproved tool has exposed the district and, potentially, themselves. Route it through the process.
• FERPA governs student records, and it constrains what may be displayed, posted, photographed or shared — including on a classroom social media account, which is a common and avoidable error.
• Accessibility is a legal obligation for materials you create, not a courtesy: captions, alternative text and readable structure.
• Your own digital conduct is a professional matter. Teacher social media accounts have ended careers, and district policies on contact with students through personal accounts are strict for good reason.

Articulation and transfer

EME3410 carries the same SCNS number across Florida public institutions and SCNS equivalency governs transfer of the credit. Note that most of the institutions offering it are Florida state colleges with bachelor's programmes in education, which is legitimate and transfers.

Two cautions. The scope divergence above is the substantive one — keep the syllabus. And the pattern recorded throughout this repository for education: certification is granted against a state-approved programme and demonstrated competencies rather than against a transcript, so a set of individually transferred courses may not satisfy a receiving programme's approved sequence. Contact the receiving programme before transferring.

AI Integration

This is now among the most consequential topics in the course, and it belongs in the syllabus rather than in a coda. Teachers entering Florida classrooms will encounter generative tools immediately — in their own practice, in district policy, and in student work.

Where the tools genuinely help a teacher, and the time saving is real. Drafting lesson plans and activities to adapt rather than adopt. Differentiating a text — producing a passage at several reading levels is genuinely valuable and was previously impractical. Generating practice items and worked examples at volume. Drafting parent communication, including in other languages, subject to checking. Producing rubrics and feedback scaffolds. And administrative writing, which is a substantial and rising share of a teacher's day. Teaching is a profession with a documented workload problem, and time returned here goes back to students.

⚠ Where the tools fail, and the failures are specific to a classroom.

Generated content contains errors, and the errors are confident. Historical dates, mathematical working, scientific mechanisms and citations all come back wrong at a rate that matters when the output is put in front of thirty students as authoritative. Everything must be checked against the content by someone who knows it — which is the content knowledge half of TPACK, and it is why a teacher cannot be replaced by a generator in their own subject.

Alignment to standards is unreliable. A generated lesson claiming to address a Florida standard frequently does not. CPALMS is authoritative.

⚠ Student data must not be entered. Names, grades, IEP contents, behavioural notes and anything else identifying a student must not go into a general-purpose tool. This is a FERPA matter, districts have policies, and it is one of the clearest ways for a new teacher to create a serious problem.

Detection tools are unreliable and this matters. AI-detection software produces false positives, and the documented error rates are high enough that accusing a student on a detector's output alone is indefensible. Non-native English writers have been shown to be flagged disproportionately. A new teacher should know this before, not after, they face the situation.

The harder professional question, which this course is the right place to think about. Students have these tools and will use them, and the useful teacher response is neither prohibition that cannot be enforced nor uncritical adoption. The productive framing is the one this course already teaches: what is the learning objective, and does the tool serve or bypass it? Where the objective is to develop a capability — writing, reasoning, computing — bypassing it defeats the assessment, and the response is to design tasks that require process, in-class work, or evidence of thinking. Where the objective is elsewhere, the tool may be a legitimate aid. That is the same analysis the course applies to every other technology, applied to a new one.

And two points a teacher should be able to make to students. Offloading a task you are trying to learn to do is self-defeating in a way that is worth explaining rather than merely prohibiting. And evaluating generated output requires exactly the knowledge the student is being asked to acquire — which is a genuine argument for learning the material, and a better one than "because it's cheating."

Academic integrity in this course. Read your instructor's policy. The point specific here: the lesson plans and instructional artefacts are the evidence that you can make instructional decisions — and, more directly than in most courses, you are about to be the person setting these policies for someone else's children. Working out your own position honestly now is part of the preparation.