Why We Forget (Almost) Everything We Learn And How To Fix That

From the moment we begin our education, we are constantly learning new facts, skills, and information. But despite our best efforts to retain what we learn, it often seems like most of this knowledge evaporates over time. This phenomenon is frustrating and can impede our personal and professional growth. The reality is that we forget almost everything we learn, but by understanding why this happens, we can also learn how to fix it.

The primary reason for our forgetfulness is the way our brains are wired. Memory experts refer to a concept called the “forgetting curve,” a hypothesis that suggests that information is lost over time when there is no attempt to retain it. According to German psychologist Hermann Ebbinghaus, who first described this effect in the late 19th century, without any reinforcement or connections to prior knowledge, information tends to slip away quickly.

There are several factors at play when it comes to forgetting. First is the manner of learning; rote memorization without comprehension leads to shallow encoding in the brain, which makes the memories easy to lose. Second, lack of repetition or practice means we don’t reinforce what we’ve learned. Third, as we age, changes in brain function can impact memory retention.

The good news is that there are strategies we can implement to improve memory retention:

1. Active Learning: Engage with the material you’re trying to learn by asking questions, discussing with others, and applying the information in practical ways.

2. Spaced Repetition: Instead of cramming information at once, spread out your study sessions over a period of time. This technique aligns with the forgetting curve and allows for better long-term retention.

3. Make Connections: Relate new information to things you already know. Building these connections helps create more robust neural pathways in the brain.

4. Teach Others: By teaching what you’ve learned to someone else, you’re forced to organize your knowledge efficiently and reinforce what you’ve learned in your own mind.

5. Use Mnemonic Devices: Incorporates patterns such as rhymes, acronyms, or visual imagery that help recall information easier.

6. Stay Healthy: A healthy lifestyle including exercise and proper nutrition can enhance cognitive function and thus memory retention.

In conclusion, while it’s natural for us to forget much of what we learn due to the way our brains function, applying targeted strategies like active learning and spaced repetition can dramatically improve how much knowledge we retain over time. By understanding and working with our brain’s natural learning processes rather than against them, we can reduce forgetfulness and make our learning stick.

Beating the Forgetting Curve with Distributed Practice

Learning is an invaluable life-long process; however, retaining what we’ve learned can be quite challenging due to a phenomenon known as the forgetting curve. This curve represents the decline of memory retention over time, where information is lost when there is no attempt to retain it.

Research by the German psychologist Hermann Ebbinghaus in the late 19th century revealed that without any reinforcement or connections to prior knowledge, the rate of forgetfulness is rapid within the first few days after learning. Fortunately, one of the most effective methods for overcoming this decline in memory retention is distributed practice, also known as spaced repetition.

The principle behind distributed practice is simple: Instead of cramming information in one go (massed practice), it’s spread out over intervals. This technique leverages the psychological spacing effect, where our brains encode information more effectively when exposure to that information is spaced out over time.

This approach can be implemented through techniques such as:

1. Spacing Effect: Plan several shorter study sessions over a longer period of time rather than one long study session.

2. Retrieval Practice: Instead of merely rereading the information, actively recall or ‘retrieve’ information from memory through flashcards or practice tests.

3. Interleaving Practice: Study different subjects or topics in parallel rather than focusing on one block of subject matter at a time.

4. Varied Practice: Change up your study routine and materials to avoid habituation and to make the learning process more engaging and challenging.

Empirical research has consistently demonstrated that distributed practice can significantly enhance long-term retention of material compared to massed practice. It reduces cognitive fatigue, allowing the brain to consolidate information better and build more durable memory traces.

Educators advise students to create a study timetable that incorporates these principles, making sure to begin well ahead of exams or deadlines. Consistent review sessions with ample intervals between them ensure that knowledge has time to be encoded into long-term memory.

In addition to formal learning environments, distributed practice is also greatly beneficial for professional settings where staying up-to-date with new information and skills are crucial. From language acquisition to technical skills maintenance in rapidly evolving fields such as IT and medicine, distributed practice helps individuals remain proficient throughout their careers.

In conclusion, beating the forgetting curve with distributed practice involves understanding how memory works and adapting our learning strategies accordingly. By spacing out study sessions, diversifying our approaches, actively recalling information, and interleaving our subjects, we can ensure that what we learn today stays with us for much longer than it otherwise would.

What Is The Forgetting Curve (And How Do You Combat It)?

The Forgetting Curve, a concept first introduced by the German psychologist Hermann Ebbinghaus in the late 19th century, captures one of the common frustrations faced by learners: memory loss over time. The curve shows how information is lost over time when there is no attempt to retain it. Ebbinghaus’s research illustrated that memory retention declines in a roughly exponential fashion, with a sharp drop occurring soon after learning and gradually plateauing, meaning that we forget rapidly at first, but the rate of forgetting slows down over time.

So, what does this mean for anyone trying to learn and remember new information? It indicates that reviewing learned material is crucial for its retention. Here are some strategies to help combat the forgetting curve:

1. Spaced Repetition: Revisit information at intervals increasingly spaced out over time. This technique leverages the spacing effect, showing that cramming is less effective than studying spread out over periods.

2. Active Recall: Actively stimulate memory during the learning process through self-testing or teaching what you’ve learned to others.

3. Elaborative Rehearsal: Connect new information to something you already know well. By creating meaningful associations, you’re more likely to remember it.

4. Mnemonics: Use memory aids such as acronyms or rhymes to remember lists or complex information.

5. Sleep and Nutrition: Getting adequate sleep and maintaining a healthy diet are crucial. They play a significant role in cognitive function and memory consolidation.

6. Physical Exercise: Regular physical activity has been proven to boost brain function and support neuron growth, crucial for long-term memory storage.

7. Mindfulness and Focus: Paying full attention and being actively engaged while learning helps create stronger memories.

8. Variation in Learning: Learning in different ways – through reading, writing, speaking, or applying – can help reinforce memory.

9. Interleaving Practice: Mixing up different subjects or topics when learning (as opposed to block learning) can improve retention rates.

10. Frequent Review Sessions: Beyond initial learning, conducting short review sessions consistently can greatly enhance retention by reinforcing neural pathways related to the information.

The Forgetting Curve may seem like a daunting obstacle in the path of learning but understanding how memory works is the first step toward mastering content rather than being mastered by it. Employing these strategies can turn the forgetting curve from an enemy into an asset for more effective learning and long-term knowledge retention.

Applying Proven Memory Encoding And Retrieval Techniques

Our memory is an essential aspect of our daily lives. It helps us recall the information we have learned, recognize the faces of loved ones, and perform our daily tasks effortlessly. However, most of us experience moments when our memory fails us—forgetting names, misplacing keys, or struggling to recall information during exams. Fortunately, there are well-established memory techniques based on cognitive psychology principles that can help improve our ability to encode and retrieve information effectively.

Encoding is the process by which we take in information and transform it into a form that can be stored in our brain. Retrieval is how we access the stored information. Both encoding and retrieval play crucial roles in the dynamics of memory performance.

One effective method for enhancing encoding is through a technique known as elaborative encoding. This involves making the information meaningful by connecting new knowledge to existing knowledge. For example, if you are trying to memorize a new term in science, you would not simply repeat the term over and over; instead, you would learn about its attributes, see how it relates to what you already know, and understand its relevance in the broader context.

Another successful method is using mnemonic devices. Mnemonics are creative ways to remember information by forming associations. They can take the form of acronyms (such as HOMES for remembering the Great Lakes: Huron, Ontario, Michigan, Erie, Superior), rhymes, or constructing stories that link discrete items together in a memorable way.

The method of loci is an ancient and powerful mnemonic technique where one imagines placing items they need to remember along a path or within familiar locations (loci). By mentally walking through these locations, one can recall the items associated with each place. This method leverages spatial memory along with visual imagery to powerfully encode and retrieve information.

Spaced repetition is another crucial concept for efficient learning and long-term retention. This involves breaking up the learning material over several sessions spread across time rather than attempting to learn it all at once (“cramming”). Spaced repetition utilizes the psychological spacing effect where intervals between sessions bolster memory retention.

On the retrieval side, practice recall enhances memory significantly more than passive review (simply reading through notes or texts). Active retrieval forces you to pull information out of your brain through tests or quizzes without looking at your study materials first. Each successful retrieval strengthens neural pathways and thus strengthens memory.

Additionally, varying study environments can improve retrieval by providing different contexts that can cue memory. The more cues we have when encoding information (the sounds, smells, sights associated with learning) will provide diverse pathways for recalling that information later on.

In conclusion, incorporating proven techniques such as elaborative encoding strategies, mnemonic devices including the method of loci, spaced repetition for review sessions, practice recall tests and varying the contexts in which one studies can lead to significant improvements in both memory encoding and retrieval processes. Applying these principles diligently will result in enhanced learning outcomes and better overall cognitive function with respect not only to memorization but also comprehension and application of knowledge.

7 Playground Photos That Will Strike Fear in the Heart of ’80s Teachers

Introduction:

Back in the ’80s, playgrounds existed as a world of imagination and adventure for kids. But as fun as they were for children, some of these playgrounds would terrify any teacher who understood the potential dangers that lurked behind every bend. Here are seven playground photos from the 1980s that will strike fear in the heart of anyone who experienced the era as an educator.

1. The Metal Slide

Remember the burning sensation when sitting on those metal slides under the glaring sun? These heating hazards did more than just make children yelp—they had teachers waiting anxiously at the bottom, ready to catch overheated tots and prevent any slide-related injuries.

2. The Old Tire Jungle

Stacks upon stacks of large tires made up what was once considered a fun jungle gym. The fear here came from what could be hiding within those dark crevices or when kids would get stuck underneath a tire halfway through their exploratory journey.

3. No Safety Surfacing

While today’s playground surfaces consist of rubberized materials that cushion falls, many playgrounds in the ’80s featured concrete or asphalt. Fearful teachers knew that one misstep could result in a scraped knee or worse, so they were always on alert.

4. Merry-Go-Rounds

Spinning at breakneck speed, these old-fashioned merry-go-rounds were thrilling for children but often nauseating for ’80s teachers, who could only watch helplessly as their pupils’ faces turned green with each round.

5. Swings Set too Close Together

Swing sets in the ’80s had dangerously close spacing between swings, making it hard for kids to avoid colliding mid-air with each other. This made monitoring swing usage a stressful endeavor for teachers on recess duty.

6. Wooden Monkey Bars with Splinter Potential

Climbing on wooden monkey bars provided endless fun for kids, but teachers knew all too well the possibility of a rogue splinter. They’d wince as each eager child climbed to new heights, hoping there wouldn’t be a trip to the nurse’s office afterward.

7. Teeter-Totters

These iconic see-saws could be loads of fun, but they also held the potential for a sudden drop that would send one child skyrocketing into the air with the risk of losing their grip and falling dramatically onto the unforgiving ground.

Conclusion:

These playground photos from the 1980s show a time when danger and fun went hand in hand. While today’s playgrounds prioritize safety, looking back at these images makes one realize how far we’ve come in making playtime safer for everyone involved, much to the relief of present-day teachers everywhere.

21 Effective Memory Strategies for Special Needs Children

Are you looking for strategies to help your special education student improve their memory skills? If so, keep reading.

Teach the learner to identify main points, essential facts, etc.

Teach the learner to rely on resources in their surroundings to recall information (e.g., notes, textbooks, images, etc.).

When the learner is required to recall information, give auditory signals to help the learner remember the information (e.g., keywords, a brief oral description to clue the learner, etc.).

Assess the meaningfulness of the content to the learner. Knowledge acquisition is more likely to happen when the learning content is meaningful, and the learner can relate to real experiences.

Correlate the information being presented to the learner’s prior learning experience s.

Provide the learner specific categories and have the learner name as many things as possible within that category (e.g., objects, persons, places, etc.).

Provide the learner a sequence of words or images and have the learner name the class to which they belong (e.g., objects, persons, places, etc.).

Assist the learner in employing memory aids to recall words (e.g., a name might be linked to another word; for example, “Mr. Green is a very colorful person.”).

Provide the learner a sequence of words describing objects, persons, places, etc., and have the learner find the opposite of each word.

Urge the learner to play word games such as HANGMAN®, SCRABBLE®, Password™, etc.

Get the learner to finish “fill-in-the blank” sentences with appropriate words (e.g., objects, persons, places, etc.).

Inform the learner what to listen for when being given instructions, receiving information, etc.

Assess the appropriateness of the memory learning activities to ascertain (a) if the task is too complicated, and (b) if the duration of time scheduled to finish the task is sufficient.

Tag objects, persons, places, etc., in their surroundings, to help the learner recall their names.

Make sure the learner receives information from an assortment of sources (e.g., texts, discussions, films, slide presentations, etc.) to enable memory/recall.

Teach the learner listening skills (e.g., stop working, look at the person delivering questions and instructions, have appropriate note-taking learning materials, etc.).

Teach the learner instruction-following skills (e.g., stop doing other things, listen carefully, write down essential points, wait until all instructions are given, question any guidelines not grasped, etc.).

Explain objects, persons, places, etc., and have the learner name the things described.

Get the learner to record directions, explanations, instructions, lectures, etc. The learner may replay the information as needed.

Spotlight essential information the learner reads (e.g., instructions, reading tasks, math word problems, etc.).

Consider using an education app to help the student enhance their memory. Click here to view a list of apps that we recommend.

21 Effective Memory Strategies for Special Needs Children

Are you looking for strategies to help your special education student improve their memory skills? If so, keep reading.

Teach the learner to identify main points, essential facts, etc.

Teach the learner to rely on resources in their surroundings to recall information (e.g., notes, textbooks, images, etc.).

When the learner is required to recall information, give auditory signals to help the learner remember the information (e.g., keywords, a brief oral description to clue the learner, etc.).

Assess the meaningfulness of the content to the learner. Knowledge acquisition is more likely to happen when the learning content is meaningful, and the learner can relate to real experiences.

Correlate the information being presented to the learner’s prior learning experience s.

Provide the learner specific categories and have the learner name as many things as possible within that category (e.g., objects, persons, places, etc.).

Provide the learner a sequence of words or images and have the learner name the class to which they belong (e.g., objects, persons, places, etc.).

Assist the learner in employing memory aids to recall words (e.g., a name might be linked to another word; for example, “Mr. Green is a very colorful person.”).

Provide the learner a sequence of words describing objects, persons, places, etc., and have the learner find the opposite of each word.

Urge the learner to play word games such as HANGMAN®, SCRABBLE®, Password™, etc.

Get the learner to finish “fill-in-the blank” sentences with appropriate words (e.g., objects, persons, places, etc.).

Inform the learner what to listen for when being given instructions, receiving information, etc.

Assess the appropriateness of the memory learning activities to ascertain (a) if the task is too complicated, and (b) if the duration of time scheduled to finish the task is sufficient.

Tag objects, persons, places, etc., in their surroundings, to help the learner recall their names.

Make sure the learner receives information from an assortment of sources (e.g., texts, discussions, films, slide presentations, etc.) to enable memory/recall.

Teach the learner listening skills (e.g., stop working, look at the person delivering questions and instructions, have appropriate note-taking learning materials, etc.).

Teach the learner instruction-following skills (e.g., stop doing other things, listen carefully, write down essential points, wait until all instructions are given, question any guidelines not grasped, etc.).

Explain objects, persons, places, etc., and have the learner name the things described.

Get the learner to record directions, explanations, instructions, lectures, etc. The learner may replay the information as needed.

Spotlight essential information the learner reads (e.g., instructions, reading tasks, math word problems, etc.).

Consider using an education app to help the student enhance their memory. Click here to view a list of apps that we recommend.

What are Mnemonics?

These are patterns related to words and ideas, which are used to enhance the memory of certain information. When talking about mnemonics, most people think of mnemonic acronyms that help people remember items by using a catchy phrase or word in which the acronym letters are at the start of each of the words in a list. For example, the acronym ‘VIBGYOR’ is used to remember the colors in the optical spectrum in the order they appear – violet, indigo, blue, green, yellow, orange, and red.

Some other examples of mnemonics are:

  •         To memorize the order of the Great Lakes (Superior, Michigan, Huron, Erie, Ontario), the acronym ‘HOMES’ is used. Another mnemonic for the order is ‘Super Man Helps Every One.’
  •         To remember the sequence of mathematical operations (parentheses, exponents, multiplication, division, addition, subtraction), the mnemonic used is ‘Please Excuse My Dear Aunt Sally.’ (PEMDAS)
  •         The seven coordinating conjunctions, namely For, And, Nor, But, Or, Yet, So, are remembered using the mnemonic ‘FANBOYS.’
  •         To recall the order of taxonomy (Kingdom, Phylum, Class, Order, Family, Genus, Species), biology students use the mnemonic ‘King Philip Cuts Open Five Green Snakes.’

Mnemonics work by linking easy-to-remember clues with unfamiliar or complex data. Though they often appear to be arbitrary, nonsensical, and illogical, their wording is fun, thus making them memorable. Teachers should introduce their students (with and without disabilities) to mnemonics to help them remember and retrieve the new information they teach. Mnemonics are extremely helpful when a task requires students to memorize certain information rather than understand a concept.

Once the students learn the concept of mnemonics, they can use and adapt these tools for the rest of their lives to ensure important information doesn’t slip through their fingers. There are different types of mnemonics, and which one works the best is dependent on the individual student. Listed below are four basic types:

  •         Music mnemonics: Music is a powerful tool that works well in mnemonics where items in a list to be remembered are combined in a song or rhythmic pattern. Examples are the ‘ABC’ song to learn the English alphabet or the ‘50 Nifty United States’ song that students use to learn all the states alphabetically.
  •         Name mnemonics: Here, the first letter of each word in a list is used to form the name of an item or person, like ROY G. BIV (for remembering the colors of the spectrum). It’s interesting to note how it’s the exact reverse of VIBGYOR.
  •         Word or expression mnemonics: This is perhaps the most popularly used among mnemonics, where the initial letter of every item in a list is organized to form a phrase or word. Examples already discussed earlier are ‘FANBOYS’ and ‘King Philip Cuts Open Five Green Snakes.’
  •         Rhyme mnemonics: Here, the information to be remembered is organized in the form of a poem. For example, ‘In fourteen hundred ninety-two, Columbus sailed the ocean blue.’

Some other types are image mnemonics, note organization mnemonics, model mnemonics, connection mnemonics, and spelling mnemonics.

What is Flashbulb Memory?

This is a part of memory that keeps important occurrences majorly in auditory and visual memory. In other words, it’s an extremely vivid and detailed ‘snapshot’ of a moment in which a surprising, significant, and emotionally arousing piece of news was learned. Flashbulb memory often includes details like where the individual was or what he was doing at the time of the event.

In 1977, James Kulik and Roger Brown coined the phrase ‘flashbulb memory’ while studying individuals’ skills to remember surprising and significant events. Though the term ‘flashbulb memory’ means illumination, shock, conciseness, and detail, such memory is far from complete. Some fundamental characteristics of a flashbulb memory are

  •         informant (who shared or told the news),
  •         affect on the individual (how the person felt),
  •         impact on others (how others felt),
  •         repercussion (the event’s significance),
  •         ongoing activities (what others were doing), and
  •         location (where the individual was when the event occurred).

Examples of flashbulb memories are when an individual heard that Donald Trump had won the 2016 Presidential election or about the 9/11 terrorist attacks.

Since such memories are autobiographical memories, it could happen that the person vividly remembers what he was doing, where he was, and who first broke the news, but may not recall seeing any footage or learning the specifics until a few hours had passed. This is because flashbulb memories are characterized as extremely personal memories of how an event or a fact is related to the person. In autobiographical memories, the main focus is on the individual, while everything else is secondary.

There’s some debate over the accuracy of flashbulb memories. Some researchers found that the retrieval of such memories declines over time, just like it happens for daily memories. It indicates that perhaps flashbulb memories rank higher not essentially because of their accuracy but due to their perceived accuracy. However, some other research findings imply that flashbulb memories are more correct than everyday memories because personal involvement, consequentiality, proximity, and distinction can improve recall.

Studies have found the amygdala plays a significant role in encoding and retrieving the memories of important public events that trigger emotional arousal. Such arousal causes neurohormonal changes that affect the amygdala and possibly impact the nature of memories too. Thus, the amygdala’s role is crucial in creating and retrieving flashbulb memories.

Individual factors like age and culture can create differences in flashbulb memories. Younger adults are usually more likely to create flashbulb memories than older people. In them, the emotional attachment to an experience acts as the chief predictor of recall, while the older adults rely on rehearsal and are likely to forget the context of the experience. However, these older people will form detailed flashbulb memories, just like their younger counterparts, if the event had severely affected them. Usually, the factors impacting the vividness of flashbulb memories are believed to be independent of cultural variation. Still, some research results indicate that cultural factors can cause notable variation in the retrieval of such memories.

What is Procedural Memory?

This is the part of long-term memory with the function of keeping relevant details related to performing various actions and skills. Fundamentally, it’s the memory of how to do particular things (or perform certain procedures), such as walking, tying shoelaces, riding a cycle, and cooking an omelet, among others.

Professional athletes and musicians excel, in part, due to their advanced ability to create procedural memories. This type of memory also plays a vital role in language development, as it lets an individual talk without giving a lot of thought to proper grammar and syntax. Some tasks (in addition to the ones mentioned earlier as examples) that depend on procedural memory are skiing, playing the piano, swimming, ice skating, etc.

Procedural memories are typically unconscious. It means people don’t consciously recall them and can perform the actions without investing much mental effort as they become almost automatic. Perhaps that’s why procedural memory is sometimes called automatic memory or unconscious memory. It’s a subset of implicit memory that uses past experiences to recall matters without thinking about them. It’s different from explicit memory or declarative memory, which is made of events and facts that can be explicitly stored and intentionally recalled or “declared.”

To understand how procedural memory forms, it’s important to know about the different parts of the brain and their roles. In the brain, the cerebellum, parietal cortex, and prefrontal cortex are all involved early on in studying motor skills. The cerebellum’ role is particularly vital, as it’s needed to synchronize the flow of movements necessary for skilled motion and such movements’ timing. While humans have all the neurons they need for life when they’re born, they need to be programmed through experience to carry out tasks like hearing and seeing, and later, talking and walking.

Procedural memories are created when repeated signals strengthen synapses (which are neural junctions). The more frequently an individual performs an action, the more often signals are sent through the same synapses. After a while, these synaptic routes grow stronger, and the actions become automatic and unconscious. Although a particular memory can be as fundamental as creating an association between two nerve cells in the fingertip, other procedural memories are more intricate and take longer to form.

It’s difficult to explain procedural memory verbally as it’s usually depicted by doing. For example, it is nearly impossible to put into words how an individual drives a car without actually driving the vehicle. Though the individual can tell someone that he knows how to drive, there’s no way to prove that he actually knows it without performing the action. However, if he was asked how to drive to his house, he would probably talk about the route fairly easily. This happens because remembering the physical process of doing something (such as driving a car in this case) is a procedural memory while remembering the route an individual will have to take to reach somewhere is a declarative memory.

Procedural memory is said to form an individual’s personality as it’s closely related to creating habits since the individual develops automatic responses to particular situations.