As a teacher, I wonder if it is possible to instill this skill into students the skills of rationality and critical thinking.
It seems easy to disincentivize it. I'm not sure it's that easy to instill it. This is relevant, but targeted at college students.
One of the big things mentioned in the education literature for gifted children is "encourage asking questions," which is different from the default result for most people. A relevant Sagan quote:
...But there’s something else: Many adults are put off when youngsters pose scientific questions. Children ask why the sun is yellow, or what a dream is, or how deep you can dig a hole, or when is the world’s birthday, or why we have toes. Too many teachers and parents answer with irritation or ridicule, or quickly move on to something else. Why adults should pretend to omniscience before a five-year-old, I can’t for the life of me understand. What’s wrong with admitting that you don’t know? Children soon recognize that somehow this kind of question annoys many adults. A few more experiences like this, and another child has been lost to science.
There are many better responses. If we have an idea of the answer, we could try to e
One of the things I'm most glad that my parents taught me was to look things up. Even if they knew the answer, they'd give me a book or send me to the library instead of just giving the answer. What does "vague" mean? Look in the dictionary. Where does rain come from? Here's a book about weather.
"I don't know, but let's look it up" is an awesome answer!
It teaches the kid what their resources are, and gives them a handle on how to look stuff up independently in the future.
Plus, if you're going with (shudder!) Wikipedia, it means there's an adult to translate the ridiculously obtuse language that Wikipedia uses for all things science:
The Sun is the star at the center of the Solar System. It is almost perfectly spherical and consists of hot plasma interwoven with magnetic fields.[12][13] It has a diameter of about 1,392,684 km,[5] about 109 times that of Earth, and its mass (about 2×1030 kilograms, 330,000 times that of Earth) accounts for about 99.86% of the total mass of the Solar System.[14] Chemically, about three quarters of the Sun's mass consists of hydrogen, while the rest is mostly helium. The remainder (1.69%, which nonetheless equals 5,628 times the mass of Earth) consists of heavier elements, including oxygen, carbon, neon and iron, among others.[15]
Any parent who STARTS with that is probably not helping any more than Calvin's dad explaining "Old photographs are black and white because the world didn't gain color until sometime in the 1920s" :P
It's not a complete improvement, but for young children the Simple English Wikipedia is at least a little more comprehensible.
For science problems that involve math, always add more number in the question than necessary.
"A 1.80m tall man runs 100 meter in 8 seconds. What's his speed in m/s" is a better question than "A man runs 100 meter in 8 seconds. What's his speed in m/s"
This is just throwing an idea out there...
I think the issue might be a matter of context. Ideally, you want the students to use information to complete a challenge instead of answer trivia questions. Video games, in particular, tend to be very good at this - this video [NSFW for language] demonstrates just how much the game Mega Man X teaches players within the first few minutes of playing, and none of it is "password" knowledge, because it gets reused almost immediately in slightly different ways.
Further reading: Digital Game Based Learning by Marc Prensky. Chapter 1 is available online and is probably enough that you won't need to buy the book.
Professor James Paul Gee has also written extensively on the subject of video games and learning.
John Holt (a founder of home schooling) thought that guessing the teacher's password was caused by grading.
What started him on the path to home schooling was seeing third and fourth graders (9 and 10 year olds) so concerned with getting the right arithmetic answers that they weren't thinking about arithmetic.
There a lot of learning where students need to give a specific answer to a specific question. It's useful to learn multiplication tables by heart. The most efficient way to teach that stuff is spaced repetition. Every kid should use Anki for those problems.
If you solve those topics with Anki you have more time for teaching critical thinking.
Let students evaluate the work of other students. Every student writes a text. Alice gives her text to Bob. Bob reads Alice's text and searches for spelling errors. Afterwards the two students discuss the erors that Bob found in Alice's text.
If Alice and Bob can't agree on whether something is an error they ask the teacher.
In art class students should evaluate and discuss the work of other students. To prevent concerns of bullying I would advocate to randomize groups and use mostly groups of two students.
Create a enviroment where the kids can give each other constructive feedback.
Experiments can be very infrequent, and nigh impossible with certain subjects.
Then how about increasing the amount of experiments?
Experiments in itself are however not without issues. One of my worst experiences in school was where we did an experiment about gra...
I sticked with the values that I measured and got a bad grade. The teacher didn't explain to me why I did get the results I did.
That's terrible. In all of the labs I had in high school, our teachers specifically assured us we wouldn't get worse grades for getting unexpected results, as long as we documented everything well and provided some possible explanations for those results.
Teachers absolutely should not incentivize students to do things that would send them to Science Hell.
That is unfortunate. I think my teachers would have accepted something along the lines of "Here are some reasons I thought of; I don't think any of these reasons are very good, though, so I actually don't know what happened."
Maybe a teacher could introduce an experiment where the students have been taught a "lies-to-children" model that doesn't quite work in the experiment, then have them do the experiment, and then after some agony on the students' part, explain that the results were because the model is actually wrong and now they need to learn a newer one. As a sort of live-action science retelling. Still a little bit cargo-culty because there is still an answer at the end of the tunnel, but might give them a better idea of how things are supposed to work.
Teaching by negative example addresses all your concerns.
Here is what I mean in the abstract by teaching by negative example. Set up a situation that can be resolved or addressed using logic. Suggest or demonstrate the wrong answers. The students will (with gusto) tel...
How to Teach Students to Not Guess the Teacher’s Password?
By making it impossible to guess!
When I was in school, questions were 100% memorization. You were supposed to remember the answer, not understand it. Math required calculation, but that just meant remembering the algorithm of calculating. I never needed to think about how to solve a problem, just to recognize it as one of a very few known types and remember the method that was taught to solve it. (If I used a different method to get the right answer I would get points deducted.)
If you ask questio...
Children, at this age, are likely to take the words of a parent or teacher at face value, and naturally parrot it back. This may be a hard habit to break.
I'm not sure that third grade is an appropriate time to try to break that habit. That's an age where at least some of the students are probably still in the preoperational stage. Kids naturally start to question adults' reasoning more when they develop the capacity to manage those sorts of thoughts effectively.
Teaching students to grasp a complex topic will generally require walking them through vari...
Are you familiar with Dan Meyer's "Math Makeover" Tedx Talk? I'd highly recommend it.
It covers almost exactly this topic on the subject of math. He's also got curricula on a link on his blog (though it is a bit hard to locate in the sidebar). Also, in his talk he mentions people send him all sorts of stuff for different subjects, and a cursory look at the blog shows a ton of links, so you may be able to do more than just math work with pre-made lesson plans that require minimal tweaking.
Well partially it seems that if they're just parroting stuff back, they haven't really learned anything, so it's not much of a loss if you change your methods and they still don't learn. Basically, you haven't got a lot to lose. Mind you, I'm an engineer, not a teacher, and this is just my impression. I would defer to the actual experts.
I'd say just burn them over and over for parroting, and reward them over and over for thinking. If you ask questions of the class as the normal thing, a student will feel good about themselves for saying what you want to he...
Some thoughts: Ask yes or no questions, or questions that have a finite answer set. Learn to ask the questions in a way that your vocal intonation doesn't give away the answer immediately. Call on a specific child and ask him/her to "take a guess" at the answer to the question if it's too hard for them to know (thinking about questions can be really useful even if you aren't going to find the answer), or say "here's a challenge for you: can you figure out...", or "given that X, what do you think Y is going to be". Find a sy...
In response to other comments about math in elementary school:
Did anyone else watch the program Square One?
You could start off by overtly letting the kids know that "guessing the password" is how their success in school is measured and you're not going to be able to change that reality, but you could introduce "alternative" ways of thinking.
How about a game where each student writes down their answer to a passwordy type question and scores a point for every other student with the same answer. Lowest score wins. But they have to justify their answer.
If a teacher asks the question: "Who discovered America?" The password is: "Chr...
Unless you are dealing with unusually bright children, you are out of luck. Parroting is how most children learn. You might luck out and get an occasional Wiggin or HJPEV in your class, but they would hardly need your instruction to begin with. In addition, teaching young kids to question "because I said so" from parents and other teachers might land you in some hot water. I'm guessing that an average child would not be receptive to critical thinking training at least until adolescence.
I've been thinking about this a little bit and for math problems, making an activity of writing out what they did wrong and correcting their work might be more useful than just giving back a scored assignment. Maybe, for written prompts, you could have it span a few days or weeks? Like you give the first prompt and then they answer with something short, so then then you write them a message back and have them answer that? So it's like a written conversation! And then make assembling the sentences they produced into a paragraph into an activity as well?
Be genuinely interested. Since it is hard to be interested in the result of basic arithmetic operations, you need a proxy. So be interested in the kids’ learning process. Because there is no parental link and you don’t see them evolve long, eventually you will loathe the little never-learning idiots. Take a break then.
As a teacher, I wonder if it is possible to instill this skill into students the skills of rationality and critical thinking. I teach the third grade, and it is not immediately apparent how to apply this with my own class.
The problems I foresee are as follows:
In the sequences, it is suggested teachers should drill into students words don't count, only anticipation-controllers. How practical is this for an elementary school level? Also appreciated would be any ideas or experiences on how to do this, or how to combat the above problems. Hearing from other teachers would be excellent especially.