CRAM: A Whole Lot More than Fixing Computers

IMG_6541Literacy across the curriculum. Why is it so important? What does it mean for instruction? And what does it look like in a course like Computer Repair And Maintenance (CRAM, for short) where, as far as most people know, students just make repairs to the laptops their peers carry around and use every day?

When my district made the decision in 2011 to issue laptops to every high school student in the district, it was clear there had to be a way to maintain those computers. Hence, the CRAM class was born. Today, the CRAM classes at our two high schools enroll about 35 students each semester.

Interested students sign up for a two-hour block: One hour every day is given over to instruction. Students learn to troubleshoot problems, make simple repairs, configure the devices, install programs, and a whole lot more. The students are staggered throughout the day for that second hour in CRAM. That’s when they man the helpdesk. When students bring their laptops for repair, the CRAM students get hands-on experience with technology and they also build the interpersonal skills that are so critical for customer satisfaction.

But it’s the whole lot more that makes this class an example of what literacy across the curriculum is all about. I had the opportunity to observe my colleague’s CRAM class at my high school a couple of weeks ago. The students were making their weekly presentations about information they glean from reading about hot topics in technology. My colleague supplies the students with a list of tech websites and the students select articles of interest to them. Their assignment is to distill the information and update their peers in a brief, but formal, presentation. All of the students speak from a podium and use the ENO board to highlight the main points in what is really a professional roundtable discussion. Often, on the day I observed, they stepped away from the podium, and they all used gestures and facial expressions that complemented their remarks. They were highly articulate and spoke from a position of comfort and authority. Naturally, they managed the technology with ease. A speech teacher would have been proud.

The topics—mostly mysteries to me—included 5G (the coming standard for wireless), the Linksys wrt199ac wireless router, even a history lesson from a young man named Eric: “Ten Things You Didn’t Know about the Ethernet.” He included a poem he’d found, a parody of Housman’s “I Think That I Shall Never See”:

I think that we shall never see

A graph more lovely than a tree,

A tree whose crucial property

Is loop-free connectivity.

Their peers asked questions, made connections to prior discussions, debated the pros and cons of a particular issue. The questions from the students were serious and largely technical. When a presenter concluded, my colleague opened the floor for discussion.

James, for example, updated the class on AT&T’s mobile router. She–their teacher–asked, “How would you use this router?” and a discussion of its pros and cons ensued. Responses were immediate; there was none of the delay or reluctance to speak that sometimes happens in a class. These students were comfortable with the content and eager to share their thoughts.

An explanation of the Heartbleed bug was another topic. “Will it really destroy the internet?” asked my colleague.

“No,” said Bailey. “In terms of physical destruction, no. But loss of trust is the consequence of malware and Heartbleed and other viruses.” That’s a thoughtful reply and indicates the upper level thinking skills that conversations in this class demand.

The discussion wasn’t deadpan, though. Though they were always respectful and professional, these kids have a sense of humor: Tongue-in-cheek, one boy asked Jonathan about a piece of hardware he was touting in his report, “What color does it come in?”

“Carbon fiber black,” was Jonathan’s quick reply.

During these presentations, other high school students approached the helpdesk with their malfunctioning laptops. Whenever that happened, a designated CRAM student quietly removed himself from the discussion to service the client. He spoke in low tones, and the student needing help followed suit. IMG_6554

A week later, I returned to the class to observe the students, seated in a circle, conducting a formal discussion of net neutrality, a hot topic from the week before that had struck everyone as deserving more attention than a tech report. Their teacher (using a problem/solution format that was formerly utilized in an event called Discussion in National Forensic League speech competition) directed the students to outline the problem and the aspects of it that are unalterable, present a variety of solutions, and then select the best one. The discussion lasted for a full class period—in fact, it went over to the next day.

I was amazed by the range of the students’ remarks, by how aware they are of the world beyond high school. I heard them say

  • ISPs could starve out a website.
  • ISPs are more likely to target big businesses.
  • Let’s be frank here: The Supreme Court is an older generation and the justices don’t understand the impact they’re making.
  • This is kind of like gas prices: People notice, but the increases are gradual and people get used to it.
  • ISPs can affect not just our economy, but the global economy.
  • We need to create a new FCC.

There was much talk about customer bases, profits, Fortune 500 companies, and VPN workarounds—a connection several made to the Arab Spring and the way that protesters got around their countries’ internet blocks.

Each person presented what he felt was the best solution; others responded. One boy, for example, said that we ought to direct the FCC to call internet providers “common carriers.”

“But remember,” said another boy, “We want to connect to other countries.”

Another solution: “We should Install a VPN on every computer—then the ISPs can’t block anyone.”

And the response to it: “Pirates will break it.”

Finally, Bailey pointed out that web neutrality is a multi-faceted problem requiring a multi-faceted solution—a recognition that bespeaks maturity and a thoughtful, in-depth consideration of the issue. How often do even adults view an issue as black and white when really, whatever the topic under consideration, it’s complex? IMG_6552

In the end, their “best” solution was indeed a multi-layered one: Forming a Technology Standards committee, which would be made up of highly qualified IT professionals, that would have the power to create regulations, much like the FCC. It would receive its power to implement those regulations from the federal government. The committee would submit its proposed regulations to a public vote to ensure checks and balances. The first two proposed regulations would be a) creating more local ISPs to eliminate current ISP monopolies and b) developing standard tiered Internet usage guidelines to ensure a continued free exchange of information while allowing the ISPs to earn a profit.

Well, I was impressed. Who wouldn’t be?

The students considered the issue from multiple perspectives and arrived at a solution that addresses multiple concerns. This entire project is a demonstration of the kind of learning the new standards encourage: informed debate, reasoned responses, credible evidence. IMG_6549

Students come to the CRAM class with different levels of knowledge and experience. They receive elective credit for the course, and at the end of the year, they can choose to take a test over the skills they have learned: the CompTIA A+ Certification exam (the computer industry standard). Passing that exam yields an industry standard certificate that can lead to employment. Students can retake the class another year if they choose—the only problem is fitting it into their already crowded schedules. Nevertheless, next year students will be able to take an advanced class—Network II—that will culminate in an opportunity to demonstrate advanced career skills on the Comp TIA Network + Certification exam. At one of the high schools, because of a partnership with Vincennes University, students can receive dual-credit for both years of study.

“If only this had been possible when I was in high school,” remarked my colleague. “Potentially, our students can graduate with 8 college credits, two industry standard certificates, and two years of work-related experience.” IMG_6547

My colleague at the other high school explained a different benefit of the CRAM class: Students gain hands-on experience with laptops. “Many individuals in the IT world do not know how to repair laptops,” he told me. “In fact, our students gain experience that can lead to expertise in small device repair—like cell phones—that other technicians lack.”

He went on to list what he sees as the other top benefits of the CRAM class: Obviously, the certificates; definitely, the interpersonal skills. “Our students learn to communicate,” he told me. “They have to support others, and that means they have to communicate effectively.” IMG_6556

The newly-released Indiana Academic Standards for Literacy in Science and Technical Subjects mandate the integration of reading, writing, and speaking skills in technical disciplines. The CRAM class is already equipping these aspiring IT and Computer Science experts not only with the technical skills and experience they need, but with the literacy skills that are so critical to success in post-high school coursework and in the workforce. CRAM is a whole lot more than computer repair: It’s real-world learning at its best.

FFA: Not What You Might Think

It was a familiar scene for a former speech coach: Yellow school buses and white vans stacked up in the school parking lot and a bevy of adults clutching clipboards and coffee cups gathered in the Media Center awaiting final instructions from the teacher in charge. In the halls, students clustered in tight little groups or stood nervously to the side, rehearsing one last time the speech they would deliver as soon as the judges received their scoring packets and were released to classrooms. In those rooms, chairs had been pushed back, masking tape had been laid on the floor to delineate the “stage,” and the doors all had signs that were not there the day before: the event to take place in that room, the time of the event, the contestants.

Very familiar. Except that this was not a National Forensic League speech competition. It was the Future Farmers of America (FFA) District Contest yesterday at my high school.

I was assigned to judge “Freshman Prepared Public Speaking”—an event for the youngest FFA members, an initiation into the more difficult “Prepared Public Speaking” competition for older chapter members. These 9th graders—14-year-olds—each chose a topic in agriculture and prepared a 3-5 minute speech on the subject. They had to submit their papers, accompanied by a complete and correct bibliography, ahead of time. We judges had read the speeches before the contestants even entered the room—and, in fact, one of the scoring categories addressed the students’ written language: organization, coherence, logic, language, sentence structure, and whether the writer accomplished the purpose.

For the most part, they had memorized their speeches, although note cards are allowed. The topics were serious ones: The loss of farm land to developers and the implications of that for feeding our rapidly expanding global population; water conservation and the various ways we can effect that; the advantages and disadvantages of biofuels. No fluff here. Students were scored on the accuracy of their information, the evidence they provided and its suitability for the occasion. And that bibliography? Forty points!

The students had been coached in presentation skills. Every one of them strode confidently into the room, shook hands with each of the five judges, and made eye contact, smiling big. Someone who hadn’t learned this first rule of commanding the stage would have been a sore thumb, but every one of these kids was genuine in their friendliness. Their demeanor was refreshing, not staged, and they exuded wholesomeness.

I wanted to claim each of them as my own.

At the end, each student stood to answer questions from the judges. Naturally, they had to maintain their poise throughout the ordeal—and I imagine, to them, it was that. They had no idea what we might ask, but for the most part they had done their homework and could elaborate on their topic—or had the good sense to admit they didn’t know when the question was something that came (I’m sure they thought) from left field. One of the contestants, remarking on the importance of agriculture, observed that kids in general don’t know where their food comes from.

Another judge, an elementary school teacher, concurred with her. “Yes,” he said, “Ask elementary students where hamburger comes from and most will say, ‘The store.’”

P1040331That won’t happen when the student whom I can claim as my own is in charge of her classroom. In an exquisite turn-around, one of the judges I was with was once a student of mine, and now she helped me understand the procedures of my judging assignment. Three years ago, I coached Layne, who was in my American Lit class, in “Prepared Public Speaking” for this same FFA contest.

Layne not only won the district, but she went on to win the state competition and capture bronze at Nationals. Her speech was a heavily researched, intensely rehearsed argument defending the livestock industry against agencies and organizations who brand their practices inhumane. Her compelling explanations and well-chosen evidence convinced not just me, but audience after audience. Layne spoke not just in competition, but also, to rehearse her speech in advance of nationals, to many audiences of adults in business or in organizations connected to agriculture. She met people from all over the state—including a senator who offered to help her with resources—and the networking she did is still bearing fruit.

This past summer Layne was crowned Miss Tippecanoe County at the county fair—another big deal in our state and another competition that is not at all what it sounds like. Asked at that competition what her proudest accomplishment was, Layne replied that it was her experience with the Prepared Public Speaking event in FFA.

Layne is in college now, studying to be an elementary school teacher. Naturally, I wanted to know how FFA had prepared her for college. “Well,” Layne answered, “I’m the one people bring their papers to.”

The answer didn’t surprise me because the contest today was all about literacy skills—not just in the event I judged and the one I had coached Layne for, but in all the others, too: Agricultural Sales Demonstration, Essay, Exhibit, Extemporaneous Speaking, Job Interview, Natural Resources Demonstration—to name just a few.

She knows how to gather evidence for an argument, how to organize a presentation, how to write clearly and convincingly, and how to do that beastly Works Cited page—whether in MLA or APA format. “I did just fine on my first college paper,” she continued.” I already had those skills.”

Of course, the English Department gets credit here, too, but FFA gave Layne the opportunity to apply the skills she learned in English and speech in a real-world setting with authentic audiences. I wonder if everyone realizes the extent to which FFA supports the literacy skills that are taught in English and articulated in the College and Career Ready standards that every state (Common Core states and otherwise) must adhere to? We’re working the same ground, we English teachers and FFA.

And, I might add, FFA is an example of the kind of interdisciplinary learning that our students need. FFA members apply basic math skills all the time, in practical situations they deal with every day and in theoretical ones they’re handed in classes in ag business and ag econ. FFA topics are wedded to science (look no farther than the girl who spoke about water—she cited research at Purdue into drought-resistant plants and mentioned the aquifers in the West) and to history (She tied her speech to the water shortage during the Depression, too).  If we’re going to feed 9 billion people by the year 2050, technology will play a vital role as well. In fact, it is the interdisciplinary thinking and the committed work ethic of kids like those I saw yesterday at the FFA district contest that will make it happen.

The saying is clichéd now—a staple of promotional t-shirts and commemorative swag—but it was new to me yesterday: “FFA: Not just Cows, Plows, and Sows.”

Indeed.

Anything but Random

P1040221It was a system he’d devised for grouping students that led me into my colleague’s 8th grade Industrial Technology class:

He knows, given a choice, that students will sit with their friends. So on the first day of school, when his 8th graders come into the lab setting where they will sit four to a table, he lets them do that. What he further observes is that those self-selected groups tend to be homogeneous—most everyone is a member of some social group: the brains, the preps, the slackers, etc. Kids (and adults, it must be said) are usually friends with the people who are most like they are.

But for many of the projects in IT—Project-Lead-the-Way’s Gateway to Engineering course—a heterogeneously grouped team works better. So, to get the kids into such groups without their realizing they’ve been strategically placed, this savvy teacher puts a coffee cup on each table. In each cup are pieces of paper numbered 1,2,3,4. Everyone draws a number. Basically, all the ones become a group, all the twos, all the threes, etc. If the group needs to be smaller, it can be subdivided, but divided or not, what happens is that every group includes someone from each of the social groups—and the kids think they’ve been drawing numbers randomly. No hard feelings for a student who might not have been picked. No subtle labeling by the teacher when he or she divides the kids up.

Leave it to an IT teacher to work out the mechanics of social engineering.

I stayed on that day to watch these teams at work on their Rube Goldberg projects. You remember who Rube Goldberg was: an inventor, an engineer, and a Pulitzer Prize-winning editorial cartoonist who drew elaborate machines to perform simple tasks. His name has become an adjective in the English language to designate any complex solution to a simple problem.

In sixth grade, these students had learned about the six simple machines:

  • incline plane
  • wedge
  • screw
  • lever (3 classes, depending upon where the fulcrum is located relative to the load)
  • wheel and axle
  • pulley

Now their task was to design a system that would use all six machines at least once to transfer energy from a given point on a 12” x 12” plywood base in a minimum of 3 seconds. A longer time is better—this is Rube Goldberg after all! Ultimately, all the complex machines would attach in a line. Students would have to devise the transitional steps between any two.

By the time I got there, toward the end of the semester, kids had already done the reading for this unit. They’d already learned the vocabulary (Try words like these and tell me they aren’t Tier 3 language: force, friction, gravity, mechanical advantage, open loop system, kinetic energy, potential energy, prototype, torque, velocity, work. Not to mention the names of the six simple machines themselves.)

The students had already been to the computers to find five common examples of each of the six simple machines: things like ramps to load or offload heavy equipment, door stops, circular slides on playgrounds, teeter-totters, wheelbarrows, shovels, rolling pins, and window shades. The research component of this project teaches kids to open their eyes to the world around them—and the amazing display of human invention that is all around us.

P1040229They’d already drawn their plans, and those were spread out on the tables as the kids gathered materials and assembled their machines. The supplies came from random materials my colleague had salvaged, scrounged, selected, and squirreled away just for this project: odd pieces of lumber, random pieces of metal, old bits of hardware, spools, caps, plastic parts of unknown origin, cardboard and whatnot. To an outside observer, the junk pile looked like trash—but it was treasure to these aspiring inventors.

They were keeping track of their “costs” as well. While no purchased parts are allowed for these projects, the students keep a running list of the costs they incur for the materials they consume, for the use of tools, even for the teacher’s “consulting time.” At the end, cost figures into the overall evaluation of their finished product.

I watched kids consult, make adjustments, compare the product to the plan, test their device. Painstakingly. Thoughtfully. Respectfully.

P1040230And when the bell rang, I looked around: All the tables were clear, the projects had been stowed until the next day, quiet had descended. Actually, the quiet was more the cessation of the power saws than the kids voices—because their voices had been  collaborative in tone; their words, purposeful.  Everyone had been contributing to the group effort; no one was a lone ranger.

There was nothing random about this class at all.

Leave it to an IT teacher to make complexity, simple: To teach kids upper level thinking skills, problem-solution strategies, skills of collaboration, math applications, and a whole lot of vocabulary, comprehension, and discipline-specific writing.

I was blown away.

License to Sew

Middle School FACS (Family and Consumer Sciences) isn’t the cooking and sewing of yesterday. In fact, many FACS teachers don’t teach sewing at all P1040022these days.  It’s not in the state standards as a stand-alone skill.  Fashion design, care of resources, reading instruction manuals: These are covered in the standards, but not teaching of sewing per se.  Fortunately, the middle schools in my district still have sewing machines, local standards still allow for teaching kids how to operate them, and the teachers understand that the justification for omitting sewing from the state standards—“No one sews anymore”—is not entirely true.  In my part of the world, 4-H is still a big deal and fabric stores still exist. In the larger world, the world beyond the borders of my county, the fashion industry is HUGE—and people who enter into that world need to know how garments are constructed if they’re going to design them.  Learning to sew is a career skill for some kids—no less important than learning to draw, play a musical instrument, or use basic computer programs like Excel and Word.

So it was a thrill yesterday to watch a sewing lesson—and one that was about as perfect as any lesson could be.

The kids came into the room, put their binders and paraphernalia on the desks in the classroom portion of the FACS room, and proceeded without delay or loud chatter to their assigned sewing tables.  Their teacher took attendance by simply asking the tables to report out the names of the missing kids.  Two kids were gone; she recorded their names later. Then she began the class with three very simple, short directives.  First, a correction to a privilege she’d accorded the students earlier in the year (one sentence, very clear, about music and iPods). Then, a review of the parts of the sewing machine (The students pointed appropriately as the teacher called out the names of the parts: presser foot, bobbin winder, feed dogs, and so forth).  Finally, the day’s agenda (Steps 8-11 on the License to Sew).

Have you ever tried to explain a complex task to an 8th grader? Try thirty at a time on a potentially dangerous, motorized machine.  Can’t you just see the apprehension in a novice teacher’s eyes? The constant hands in the air? The ever-rising level of talk as the students  wait for the teacher to run around the room to each one individually identifying parts, showing each one how to load the bobbin, confirming that the machine is correctly threaded? The horsing around that middle school students are so very capable of? None of that happened in this FACS room.

Here’s how this teacher did it: She issued those students a “License to Sew.”

P1040025If you look closely at that “license,”  you’ll see genius at work.  To start with, the students taught themselves the parts of the machine and how to thread it (including bobbin winding) by reading the instruction manual.  Anyone with a question first asked a fellow student at the same sewing table.  On the blackboard, the place of last resort, was the teacher’s HELP list.  The teacher answered the questions of the kids who had put their names on that list. What that meant was that she wasn’t frantically trying to answer thirty questions, all exactly the same, many about trivial matters, or running around reassuring the anxious ones and restraining the ones with the potential to cause harm.  She was helping kids who genuinely needed her expertise.  For all the rest, self-reliance and a little help from a friend did the trick. Incidently, that’s an important goal of the FACS standards: helping kids learn to act responsibly and productively.  Kids moved ahead at their own pace, and a quiz later on—taken individually, when the student was ready, in a one-on-one minute with the teacher—confirmed knowledge of the parts of the machine and the necessary application skills.  The next step was practice sewing on paper templates. I missed that scene, but I saw the templates, commonly used in introductory sewing lessons to give the students practice without wasting resources–in this case, precious fabric.

When I was in that FACS class yesterday, about a third of the way into the P1040019hour, when everyone had been issued their “license to sew,” the teacher conducted a quick demo.  The kids—orderly, quiet, attentive— clustered around her as she showed them the next steps in their first project, a pincushion.  She showed them how to pin two pieces of fabric together (“Right sides kissing!”), leave a hole, turn the item inside out and stuff it, starting with the corners. Then she released the students to the machines.

At one point, a student I was standing near asked me for help. Her bobbin thread was hopelessly tangled, but I didn’t know the machine, and besides, the rule was, ask a friend first.  So I suggested that and reiterated that if she P1040015didn’t understand, she should write her name on the HELP list. Another student overheard my response and stepped right up: “I can help you with that,” she said. Exit me.

Imagine some of the other things that could have been going on in this classroom:  At a table covered with fabric scraps (from which the students were to choose two pieces for the pincushion), no one was tussling over the fabric, pushing or shoving others, or throwing fabric wildly about. The scene was orderly—and  the teacher wasn’t standing nearby controlling this situation, either.  She was seated at another table where kids who finished could line up with their license and their project in hand. She P1040024measured their seams and checked off the steps on the license. All over the room, kids were working at their own pace, and everyone was engaged.

When the end of class grew near, the rest of this teacher’s clearly articulated and rehearsed expectations played out: Without reminders or fuss, the kids stowed their possessions, picked up the room and put all the equipment back where it belonged. They disposed of the fabric bits that had fallen to the floor and pushed their chairs in. Exit them.

A spectacular class: Specific skills were learned, character traits like self-reliance and independence were honored and nurtured, and the instruction the teacher provided and the procedures she had instituted allowed for students to progress at their own rate and take responsibility for their learning.  I’ve seen art teachers and music teachers and technology teachers do this same thing.  In any project-based learning scenario in any subject area, the procedures must be clear and the pacing has to be orchestrated to accommodate different kids progressing at different rates. The class must operate (forgive the pun) like a well-oiled machine.

This one did.