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Although studying is considered a legitimate scientific nowadays, it is still a very young one. In the early 1970s, a psychologist named J. Guilford was one of the first academic researchers who dared to conduct a study of creativity. One of Guilford’s most famous studies was the nine-dot puzzle. He challenged research subjects to connect all nine dots using just four straight lines without lifting their pencils from the page. Today many people are familiar with this puzzle and its solution.

In the 1970s, however, very few were even aware of its existence, even though it had been around for almost a century. If you have tried solving this puzzle, you can confirm that your first attempts usually involve sketching lines inside the imaginary square. The correct solution, however, requires you to draw lines that extend beyond the area defined by the dots. At the first stages, all the participants in Guilford’s original study censored their own thinking by limiting the possible solutions to those within the imaginary square (even those who eventually solved the puzzle). Even though they weren’t instructed to restrain themselves from considering such a solution, they were unable to “see” the white space beyond the square’s boundaries. Only 20 percent managed to break out of the illusory confinement and continue their lines in the white space surrounding the dots. The symmetry, the beautiful simplicity of the solution, and the fact that 80 percent of the participants were effectively blinded by the boundaries of the square led Guilford and the readers of his books to leap to the sweeping conclusion that creativity requires you to go outside the box.

The idea went viral (via 1970s-era media and word of mouth, of course). Overnight, it seemed that creativity gurus everywhere were teaching managers how to think outside the box. Consultants in the 1970s and 1980s even used this puzzle when making sales pitches to prospective clients. Because the solution is, in hindsight, deceptively simple, clients tended to admit they should have thought of it themselves. Because they hadn’t, they were obviously not as creative or smart as they had previously thought, and needed to call in creative experts. Or so their consultants would have them believe.

The nine-dot puzzle and the phrase “thinking outside the box” became metaphors for creativity and spread like wildfire in, management, psychology, the creative arts, engineering, and personal improvement circles. There seemed to be no end to the insights that could be offered under the banner of thinking outside the box. Speakers, trainers, training program developers, organizational consultants, and university professors all had much to say about the vast benefits of outside-the-box thinking. It was an appealing and apparently convincing message. Indeed, the concept enjoyed such strong popularity and intuitive appeal that no one bothered to check the facts.

No one, that is, before two different research —Clarke Burnham with Kenneth Davis, and Joseph Alba with Robert Weisberg—ran another experiment using the same puzzle but a different research procedure. Both teams followed the same protocol of dividing participants into two groups. The first group was given the same instructions as the participants in Guilford’s experiment. The second group was told that the solution required the lines to be drawn outside the imaginary box bordering the dot array.

In other words, the “trick” was revealed in advance. Would you like to guess the percentage of the participants in the second group who solved the puzzle correctly? Most people assume that 60 percent to 90 percent of the group given the clue would solve the puzzle easily. In fact, only a meager 25 percent did. What’s more, in statistical terms, this 5 percent improvement over the subjects of Guilford’s original study is insignificant. In other words, the difference could easily be due to what statisticians call sampling error. Let’s look a little more closely at these surprising results.

Solving this problem requires people to literally think outside the box. Yet participants’ performance was not improved even when they were given specific instructions to do so. Handmaiden Patch Kotor.

That is, direct and explicit instructions to think outside the box did not help. That this advice is useless when actually trying to solve a problem involving a real box should effectively have killed off the much widely disseminated—and therefore, much more dangerous—metaphor that out-of-the-box thinking spurs creativity. After all, with one simple yet brilliant experiment, researchers had proven that the conceptual link between thinking outside the box and creativity was a myth. Of course, in real life you won’t find boxes.

But you will find numerous situations where a creative breakthrough is staring you in the face. They are much more common than you probably think. *From Copyright 2014 Drew Boyd. There are many theories of creativity. What the latest experiment proves is not that creativity lacks any association to thinking outside-the-box, but that such is not conditioned by acquired knowledge, i.e., environmental concerns.

For example, there have been some theories such as those of Schopenhauer (see his remarks about Genius) and Freud (see his remarks about Sublimation) that propose creativity is something more like a capacity provided by nature rather than one acquired or learned from the environment. Rather than disproving the myth, in other words, the experiment might instead offer evidence that creativity is an ability that one is born with, or born lacking, hence why information from the environment didn't impact the results at all. It's an interesting experiment, but the author's conclusion cannot possibly follow from the results of it. I conduct soft skills training and outbound training for Corporates and individuals.

To enhance creativity we motivate the participants to approach the problems from variety of vantage points. Even repeatedly checking the boundary conditions we are able to come up with variety of ways of solving the problem. This is akin to checking the walls of the box. Looking inside the box for additional information, additional resources also helps. Looking at the box from bird's eye view triggers some different creative solutions. Let us not get tied down to the mechanics but free ourselves to find the solution.

I will give an example. You are playing football with family and friends at a distant ground and someone gets bruised badly. No first aid kit is available.

Your priority is to get the person to a hospital ( at a distance of 2 hours ). The wound is bleeding and needs to be kept clean and bacteria free till the person reaches the hospital. What will you do? Think of a solution. It is quite close to you. With all due respect, Professor Boyd, your argument is not at all compelling. It seems that you are taking the 'thinking outside the box' (TOTB) metaphor much more literally than it is intended (or, at least, as I and may others infer).

Let me point out a few false and/or negligent statements that you make: 1. To refer to TOTB as 'dangerous' is naive, at best. I, personally, have seen the positive, tranformative effects of not only the 9-dots exercise, but also the occasional use of the term to remind individuals after-the-fact about the value of thinking differently. The experiment you refer to doesn't even come close to proving what you suggest that it does. To use the term 'proving' in an argument like this is laughable. In real life, you absolutely WILL find boxes.that is, if you understand what the term 'box' refers to.

Here, the term is not literal; rather, it refers to a mindset, a perspective, a belief, or an assumption. It is precisely how the human mind works. We all think in boxes all the time. The 'sin,' if you will, is not in thinking inside of a box.but the neglect to readily switch from one box to another, nimbly (see Alan Iny's new book, 'Thinking in New Boxes'). A different -- and very healthy, positive, and productive -- way to think about TOTB is to understand that it merely represents an insight that can remind an individual to consciously become aware of limiting assumptions.

And, upon such awareness, to open ones mind and imagination to actively explore new possibilities beyond the obvious or initial answer. If you don't regard this as valid contribution to creativity, then I suggest you consider spending a bit more time outside of that 'box' that you've presented here.

I couldn't have said it any better. TOTB is a beautiful skill to have. We are born into multiple boxes that are created upon social agreements (e.g. Illustrated by the hermeneutic circle) but the ones who dare to think outside of what is considered as social or scientific correct (all the boxes together) are the minds whom are absolute free and open towards new moralities, paradigms, innovations and creativity in general. Saying that TOTB is a negative thing is a very conservative statement and someone who has such a belief is scared of change, scared of diversity and scared of anything that is abstract and out of order. I'm all about TOTB and the best way to TOTB is to fully understand the box in the first place and why some people are scared of TOTB hence also lacking the ability to do so. Fold the paper so all the dots ovelap.

Use four lines to connect four dots. Hold the folded paper up to the light.all dots connected; Thinking outside The Box. For that matter, you could fold the paper until all the dots overlapped and you would not need to waste any pencil lead; Thinking outside The Box. Use a very wide pencil lead or charcoal block for that matter, connect all the dots in one fell swoop; Thinking outside The Box. Forego a pencil altogether and use a bucket of paint to create a huge blot over all the dots; Thinking outside The Box.

Question the dots and why they need to be connected in the first place; Thinking outside The Box. Erase the dots; they are a distraction to Thinking outside The Box.

Create your own dots and lines in any fashion you desire; Thinking outside The Box. People that say, it's a misguided idea,, do not know how to think outside the box, I can look /listen/ at anything an tell you how to fix it. I play chess with my pc, an beat it all the time, and the reasoning is I do not think logically, like the pc does.

It has a set of rules that it was programed with an you were in college, I do not play by the rules, I can play without the queen.Also when you go the a school that teaches how to think about something, that is all you know how to do.I have had engineers come to my deck, hand me a set of blueprints, because that was the way they were taught. They are never taught to look at it, in there mind to see it working.

What I do is show them how wrong they are, an ask them what tool in the world can cut a square hole inside the middle of two long tubes. They can not think outside the box, that they were taught to do.

If was going to tell you about an airplane the TR-3B, it travels a little bit under light speed, an it uses nuclear fusion, which turns into plasma an powers the craft, that was built outside the box. An if you do not believe me type it into your search engine, you can also look it up at the library of congress under new patients. You my brother, do not have the inkling of understanding to think outside the box. That's why you are a psychologist an nothing more.

See also:,,, and The advent of (MIDI) and the home computer in the 1980s gave programmers the opportunity to design software that could more easily record and play back sequences of notes played or programmed by a musician. This software also improved on the quality of the earlier sequencers which tended to be mechanical sounding and were only able to play back notes of exactly equal duration.

Software-based sequencers allowed musicians to program performances that were more expressive and more human. These new sequencers could also be used to control external, especially, and it was no longer necessary for each synthesizer to have its own devoted keyboard. As the technology matured, sequencers gained more features, such as the ability to record. Sequencers used for audio recording are called (or DAWs). Many modern sequencers can be used to control implemented as software.

This allows musicians to replace expensive and cumbersome standalone synthesizers with their software equivalents. Today the term 'sequencer' is often used to describe software.

However, hardware sequencers still exist. Have their own proprietary built-in MIDI sequencers. And some older synthesizers have their own step sequencer built in. There are still also, although the market demand for those has diminished greatly due to the greater feature set of their software counterparts. Types of music sequencer [ ] Music sequencers are often categorized by handling data types, as following. [ ] • data on the MIDI sequencers (implemented as or ) • data on the and possibly others (via CV/Gate interfaces) • data for on the, and the / on the • data on the including DAW,, etc.; or, the including, etc.

Also, music sequencer can be categorized by its construction and supporting modes. Realtime sequencer (realtime recording mode) [ ]. See also:,, and Realtime sequencers record the musical notes in as on, and play back musical notes with designated,, and.

Msn Recorder Max Serial Keygen. For editing, usually ' feature originated in the is provided, although it requires enough skills to obtain desired result. For detailed editing, possibly another visual editing modes under may be more suitable. Anyway, this mode provides usability similar to the audio recorder already familiarized by musicians, and it is widely supported on software sequencer, DAW, and built-in hardware sequencers.

Analog sequencer [ ]. See also:, and are typically implemented with, and play the musical notes designated by a series of knobs or sliders corresponding to each musical note (step). It is designed for both and; users can change the musical notes at any time without regarding recording mode. And also possibly, the time-interval between each musical note (length of each step) can be independently adjustable. Typically, analog sequencer is used to generate the repeated which is reminiscent of,. Step sequencer (step recording mode) [ ]. See also:, and On the step sequencers, musical notes are rounded into the steps of equal time-interval, and users can enter each musical note without exact timing; Instead, each timing and of step are designated in several ways: • On the: select a trigger timing from a row of step-buttons.

• On the: select a step note (or ) from a chromatic keypads, then select a step duration (or ) from a group of -buttons, sequentially. • On the several: in addition to the realtime sequencer, a pair of step trigger button is provided; using it, notes on the pre-recorded sequence can be triggered in arbitrary timings for the timing dedicated recordings or performances.

( See.) In general, step mode, along with roughly quantized semi-realtime mode, is often supported on the drum machines, bass machines and several. Software sequencer [ ]. The early music sequencers were sound producing devices such as,,,, and. Player pianos, for example, had much in common with contemporary sequencers.

Composers or arrangers transmitted music to which were subsequently edited by technicians who prepared the rolls for mass duplication. Eventually consumers were able to purchase these rolls and play them back on their own player pianos. The origin of automatic musical instruments seems remarkably old. As early as the 9th century, inventors brothers invented a using exchangeable cylinders with pins, and also an playing machine using, as described in their. In the 14th century, rotating cylinders with pins were used to play a (steam organ) in Flanders, [ ] and at least in the 15th century, were seen in the Netherlands. In the late-18th or early-19th century, with technological advances of the various automatic musical instruments were invented.

Some examples:, and consisting of a barrel or cylinder with pins or a flat metal disc with punched holes; or, and using / () with punched holes, etc. These instruments were disseminated widely as popular entertainment devices prior to the inventions of,, and which eventually eclipsed all such home music production devices. Of them all, punched-paper-tape media had been used until the mid-20th century. The earliest programmable including the in 1957, and the Siemens Synthesizer in 1959, were also controlled via similar to.

Additional inventions grew out of audio technology. The technique which appeared in the late 1920s, is notable as a precursor of today's intuitive. In this technique, notes and various sound parameters are trigggered by hand-drawn black ink waveforms directly upon the film substrate, hence they resemble piano rolls (or the 'strip charts' of the modern sequencers/DAWs). Drawn soundtrack was often used in early experimental electronic music, including the developed by in 1930, and the designed by in 1957, and so forth. Analog sequencers [ ]. This section needs expansion. You can help.

(April 2017) During the 1940s–1960s,, an American composer of electronic music, invented various kind of music sequencers for his electric compositions. The 'Wall of Sound', once covered on the wall of his studio in New York during the 1940s–1950s, was an sequencer to produce rhythmic patterns, consisting of stepping (used on ),, control switches, and tone circuits with 16 individual. Later, explained it as 'the whole room would go 'clack - clack - clack', and the sounds would come out all over the place'. The Circle Machine, developed in 1959, had bulbs arranged in a ring, and a rotating arm with scanning over the ring, to generate arbitrary waveform.

Also, the rotating speed of arm was controlled via brightness of lights, and as the results, arbitrary rhythms were generated., developed since 1952, was a kind of keyboard synthesizer with sequencer. [ ] On its prototype, a manufactured by young Robert Moog was utilized to enable over 3-octave range, and on later version, it was replaced by a pair of and photocell for controlling the pitch. In 1965 had a polyphonic synthesizer with sequencer called. Built for him. Step sequencers [ ]. Played the earliest in 1951 On the other hand, software sequencers were continuously utilized since the 1950s in the context of, including computer- played music (software sequencer), computer- composed music (), and computer sound generation ().

In June 1951, the first computer music Colonel Bogey was played on, Australia's first digital computer. In 1956, at the wrote one of the earliest programs for on, and collaborated on the first piece, for String Quartet, with. In 1957 at wrote, the first widely used program for sound generation, and a 17-second composition was performed by the computer. Subsequently, computer music was mainly researched on the expensive in computer centers, until the 1970s when and then became available in this field. In Japan, experiments in computer music date back to 1962, when professor Sekine and engineer Hayashi experimented with the computer. This resulted in a piece entitled TOSBAC Suite.

DDP-24 S Block (expansion card rack unit) that is assumed the used for GROOVE (1970) by Max Mathews. In 1965, Mathews and L. Rosler developed, an interactive system (that implies sequencer) on which one could draw figures using a light-pen that would be converted into sound, simplifying the process of.

It used minicomputer for data input, and mainframe computer for rendering sound. Also in 1970, Mathews and F.

Moore developed the (Generated Real-time Output Operations on Equipment) system, a first fully developed system for interactive composition (that implies sequencer) and realtime performance, using 3C/ (or DDP-224 ) minicomputers. It used a CRT display to simplify the management of music synthesis in realtime, 12bit for realtime sound playback, an interface for analog devices, and even several controllers including a musical keyboard, knobs, and rotating to capture realtime performance. See also: In 1975, (NED) released ABLE computer (microcomputer) as a dedicated data processing unit for Dartmouth Digital Synthesizer (1973), and based on it, later Synclavier series were developed. The, released in September 1977, was one of the earliest digital product with multitrack sequencer.

Synclavier series evolved throughout the late-1970s to the mid-1980s, and they also established integration of and music-sequencer, on their Direct-to-Disk option in 1984, and later Tapeless Studio system. In 1982, renewed the Series II and added new sequencer software 'Page R', which combined with playback. 's GS-1, their first, was released in 1980. To program the synthesizer, Yamaha built a custom computer workstation designed to be used as a sequencer for the GS-1 [ ] [ ]. It was only available at Yamaha's headquarters in Japan () and the United States ().

Standalone CV/Gate sequencers [ ] While there were earlier microprocessor-based sequencers for digital polyphonic synthesizers, their early products tended to prefer the newer internal digital buses than the old-style analogue CV/Gate interface once used on their prototype system. Then in the early-1980s, they also re-recognized the needs of CV/Gate interface, and. In 1977, released the, also called composer by Roland. It was an early stand-alone, -based, digital sequencer, and an early sequencer. It equipped a to enter as numeric codes, 16 of for a maximum of 5200 notes (large for the time), and a function which allocated multiple pitch to a single. It was capable of eight-channel polyphony, allowing the creation of sequences. The MC-8 had a significant impact on popular, with the MC-8 and its descendants (such as the ) impacting popular electronic music production in the 1970s and 1980s more than any other family of sequencers.

The MC-8's earliest known users were in 1978. MIDI sequencers [ ]. See also:,, and In June 1981, founder proposed the concept of standardization between different manufacturers' instruments as well as computers, to founder and president. In October 1981, Kakehashi, Oberheim and Smith discussed the concept with representatives from, and.

In 1983, the was unveiled by Kakehashi and Smith. The first MIDI sequencer was the Roland MSQ-700, released in 1983. It was not until the advent of MIDI that started to play a role as sequencers. Following the widespread adoption of MIDI, computer-based MIDI sequencers were developed. MIDI-to- converters were then used to enable to be controlled by a MIDI sequencer. Since its introduction, MIDI has remained the musical instrument industry standard interface through to the present day.

Personal computers [ ]. It was not until the advent of, introduced to the public in 1983, that really started to play a role as software sequencers. 's personal computers, the and, added support for sequencing with MML programming in 1982.

In 1983, for the featured music production capabilities, real-time with sequencing, MIDI sequencing, and a for the software sequencer. Also in 1983, 's CMU-800 introduced music synthesis and sequencing to the PC,, and. The spread of MIDI on personal computers was facilitated by Roland's, released in 1984.

It was the first MIDI-equipped PC, capable of MIDI sound processing and sequencing. After Roland sold MPU to other sound card manufacturers, it established a universal standard MIDI-to-PC interface. Following the widespread adoption of MIDI, computer-based were developed. • On WhatIs.com of TechTarget (whatis.techtarget.com), an author seems to define a term 'Sequencer' as an abbreviation of 'MIDI sequencer'.

• (April 2005).. WhatIs.com (whatis.techtarget.com). In digital audio recording, a sequencer is a program in a computer or stand-alone keyboard unit that puts together a sound sequence from a series (or sequence) of Musical Instrument Digital Interface ( ) events (operations). The MIDI sequencer allows the user to record and edit a musical performance without using an audio-based input source. • on the are often interoperable with (Control Changes (CC) or (SysEx); in that case, it can be controlled in via pre-assigned MIDI messages generated by or, etc.

And even more, on the several DAWs, automation parameters are explicitly recorded as MIDI messages on their embedded MIDI sequencers. (See ) • The term ' ' seems to be relatively new expression and seems to be not clearly defined, yet. For example, 'DAW integrated with MIDI sequencer' is often referred as 'Audio and MIDI sequencer'. However, in this usage, the term 'audio sequencer' is just a synonym for the 'DAW', and beyond the scope of this article. In that case, please check. • In 1974-1975, Australian computer music engineer Tony Furse developed the MC6800-based with a software sequencer, with a minimum price of $8,000.

In 1976, it was licensed to, and eventually Fairlight CMI was released in 1979. (For details, see ) Also in 1975, released original microprocessor-based (utilizing mini-computer architecture) as a future migration target of Dartmouth Digital Synthesizer. Their commercial version of digital synthesizer, was first shipped in 1977. (For details, see ) References [ ]. ' Subotnick suggested that using a light source to control sound might be promising.

Later he [Buchla] turned this into an electro mechanical sequencer by introducing step relays and a dial. Buchla, like Moog, realized that voltage control. But Buchla was after something different. Buchla was led to the electronic sequencer—a device that later was used to make much influential pop, rock, and dance music. A sequencer produces predetermined control voltages in a cycle or sequence and can endlessly recylce.' Note: for a sequencer using a light source, see 'Circle Machine' on and.

• Price, Simon.. Technique: Reason Notes. Sound On Sound. No. September 2006.