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{{Short description|Approach to teaching mathematics in the 1960s}}
{{Short description|Approach to teaching mathematics in the 1960s}}
{{Other uses}}
{{Other uses}}
[[File:Spines of New Math paperbacks from 1960s.jpg|thumb|right|300px|Paperback introductions to the New Math]]
[[File:Spines of New Math paperbacks from 1960s.jpg|thumb|right|Paperback introductions to the New Math in the United States]]'''New Mathematics''' or '''New Math''' was a dramatic but temporary change in the [[mathematics education|way mathematics was taught]] in grade schools which started in France and spread to many other countries between 1950s and 1970s.
{{Education in the U.S.}}
 
'''New Mathematics''' or '''New Math''' was a dramatic but temporary change in the [[mathematics education|way mathematics was taught]] in American grade schools, and to a lesser extent in European countries and elsewhere, during the 1950s{{ndash}}1970s.


== Overview ==
== Overview ==
{{more citations needed|section|date=February 2021}}
Following World War II, the Western world underwent substantial economic and technological transformations and the training of scientists and engineers was seen as crucial for further economic growth. Furthermore, in the context of the [[Cold War]], the launch of the world's first artificial satellite ''[[Sputnik 1|Sputnik]]'' by the Soviet Union in 1957 raised concerns that the West was falling behind. To this end, educational reforms—including in mathematics, which underlies the natural sciences and engineering—were considered necessary.<ref name=":0">{{Cite book |last=Mashaal |first=Maurice |title=Bourbaki: A Secret Society of Mathematicians |publisher=[[American Mathematical Society]] |year=2006 |isbn=0-8218-3967-5 |language=French |translator-last=Pierrehumbert |translator-first=Anna |chapter=10: New Math in the Classroom}}</ref> In Europe, reform of school mathematical curricula was pursued by multiple countries, including the United Kingdom (particularly by the [[School Mathematics Project]]), and West Germany, where the changes were seen as part of a larger process of ''[[Education reform|Bildungsreform]]''. In the United States, the educational status quo was severely criticized as sorely lacking on substance and as a source of national humiliation, prompting Congress to introduce the [[National Defense Education Act]] of 1958,<ref name=":3">{{Cite web |last=Klein |first=David |date=2003 |title=A Brief History of American K-12 Mathematics Education in the 20th Century |url=http://www.csun.edu/~vcmth00m/AHistory.html |access-date=March 16, 2023 |publisher=California State University, Northridge}}</ref> pouring enormous sums of money into not just research and development but also [[Science, technology, engineering, and mathematics|STEM]] education.<ref name="Garraty-1991">{{Cite book |last=Garraty |first=John A. |title=The American Nation: A History of the United States |publisher=Harper Collins |year=1991 |isbn=978-0-06-042312-4 |location=United States of America |pages=896–7 |chapter=Chapter XXXII Society in Flux, 1945-1980. Rethinking Public Education}}</ref>
In 1957, the U.S. [[National Science Foundation]] funded the development of several new curricula in the sciences, such as the [[Physical Science Study Committee]] high school physics curriculum, [[Biological Sciences Curriculum Study]] in biology, and [https://archive.org/details/CHEMStudy CHEM Study] in chemistry.  Several mathematics curriculum development efforts were also funded as part of the same initiative, such as the [http://library.webster.edu/archives/findingaids/madison/aboutmadisonproject.html Madison Project], [[School Mathematics Study Group]], and [https://archive.org/details/highschoolmathemat01univ/page/6/mode/2up University of Illinois Committee on School Mathematics].
 
These curricula were quite diverse, yet shared the idea that children's learning of arithmetic algorithms would last past the exam only if memorization and practice were paired with teaching for ''comprehension.''  More specifically, [[elementary school]] arithmetic beyond single digits makes sense only on the basis of understanding [[place-value]].  This goal was the reason for teaching arithmetic in bases other than ten in the New Math, despite critics' derision: In that unfamiliar context, students couldn't just mindlessly follow an algorithm, but had to think why the place value of the "hundreds" digit in base seven is 49.  Keeping track of non-decimal notation also explains the need to distinguish ''numbers'' (values) from the ''numerals'' that represent them.<ref>{{cite web | url =http://web.math.rochester.edu/people/faculty/rarm/beberman.html | title =Chapter 1: Max | last =Raimi | first =Ralph | date =May 6, 2004 | access-date =April 24, 2018}}</ref>
 
Topics introduced in the New Math include [[set theory]], [[modular arithmetic]], [[inequality (mathematics)|algebraic inequalities]], [[Radix|bases]] other than [[Base 10|10]], [[Matrix (mathematics)|matrices]], [[Mathematical logic|symbolic logic]], [[Boolean algebra]], and [[abstract algebra]].<ref name = Kline>{{cite book | last = Kline | first = Morris | author-link = Morris Kline | title = Why Johnny Can't Add: The Failure of the New Math | publisher = [[St. Martin's Press]] | year = 1973 | location = New York | isbn = 0-394-71981-6| title-link = Why Johnny Can't Add: The Failure of the New Math }}</ref>
 
All of the New Math projects emphasized some form of [[discovery learning]].<ref>{{Cite web|last=Isbrucker|first=Asher|date=2021-04-21|title=What Happened to 'New Math'?|url=https://medium.com/age-of-awareness/what-happened-to-new-math-eeb8522fc695|access-date=2022-02-10|website=Age of Awareness|language=en}}</ref> Students worked in groups to invent theories about problems posed in the textbooks.  Materials for teachers described the classroom as "noisy."  Part of the job of the teacher was provide [[instructional scaffolding]], that is, to move from table to table assessing the theory that each group of students had developed and "torpedo" wrong theories by providing [[counterexample]]s. For that style of teaching to be tolerable for students, they had to experience the teacher as a colleague rather than as an adversary or as someone concerned mainly with grading.  New Math workshops for teachers, therefore, spent as much effort on the [[pedagogy]] as on the mathematics.<ref>{{Cite web|title=Whatever Happened To New Math?|url=https://www.americanheritage.com/whatever-happened-new-math-0|access-date=2022-02-10|website=AMERICAN HERITAGE|language=en}}</ref>
 
== Criticism ==
Parents and teachers who opposed the New Math in the U.S. complained that the new curriculum was too far outside of students' ordinary experience and was not worth taking time away from more traditional topics, such as [[arithmetic]]. The material also put new demands on teachers, many of whom were required to teach material they did not fully understand. Parents were concerned that they did not understand what their children were learning and could not help them with their studies. In an effort to learn the material, many parents attended their children's classes. In the end, it was concluded that the experiment was not working, and New Math fell out of favor before the end of the 1960s, though it continued to be taught for years thereafter in some school districts.{{Citation needed|date=May 2023}}
 
In the [[Algebra]] preface of his book, ''Precalculus Mathematics in a Nutshell'', Professor [[George F. Simmons]] wrote that the New Math produced students who had "heard of the [[commutative law]], but did not know the [[multiplication table]]".<ref>{{cite book|title = Precalculus Mathematics in a Nutshell: Geometry, Algebra, Trigonometry: Geometry, Algebra, Trigonometry|publisher = [[Wipf and Stock Publishers]]|year = 2003|chapter = Algebra &ndash; Introduction|chapter-url = https://books.google.com/books?id=dN1KAwAAQBAJ&pg=PA33|page = 33|isbn = 9781592441303|author-link = George F. Simmons|first = George F.|last = Simmons}}</ref>


In 1965, physicist [[Richard Feynman]] wrote in the essay, ''New Textbooks for the "New" Mathematics'':
Indeed, during the postwar era, the importance of modern mathematics—especially [[mathematical logic]], [[Mathematical optimization|optimization]], and [[numerical analysis]]—was acknowledged for its usefulness during the war. From this sprang proposals for reforms in mathematics education. The international movement to bring about such reforms was launched in the late 1950s, with heavy French influence. In France, they also grew out of a desire to bring the subject as it was taught in schools closer to the research done by pure mathematicians, particularly the [[Nicolas Bourbaki|Nicholas Bourbaki]] school, which emphasized an austere and abstract style of doing mathematics, [[Axiomatic system|axiomatization]].<ref group="note">Thus instead of the intuitive approach which often necessitates the memorization of rules and formulas for problem-solving, one begins with definitions and axioms then derives theorems from them. Concrete calculations are de-emphasized in favor of abstract proofs.</ref> Up until the 1950s, the purpose of primary education was to prepare students for life and future careers. This changed in the 1960s. A commission headed by [[André Lichnerowicz]] was established to work out the details of the desired reforms in mathematical education. At the same time, the French government mandated that the same courses be taught to all schoolchildren, regardless of their career prospects and aspirations. Thus the same highly abstract courses in mathematics were taught to not just those willing and able to pursue university studies but also those who left school early to join the workforce.<ref name="Gispert">{{Cite web |last=Gispert |first=Hélène |title=L'enseignement des mathématiques au XXe siècle dans le contexte français |url=http://culturemath.ens.fr/histoiredesmaths/htm/Gispert08-reformes/Gispert08.htm |url-status=dead |archive-url=https://web.archive.org/web/20170715164210/http://culturemath.ens.fr/histoire%20des%20maths/htm/Gispert08-reformes/Gispert08.htm |archive-date=July 15, 2017 |access-date=November 4, 2020 |website=CultureMATH |language=FR}}</ref>
[[File:Illustration of the law of sines, with b*sin(gamma) and c*sin(beta) being the length of the same altitude of a triangle.svg|thumb|In the New Math curriculum for traditional topics such as geometry, geometric intuition and diagrams, like this illustration of the [[law of sines]], were eschewed in favor of an austere and abstract presentation in terms of linear algebra.]]
In France, from elementary school to the [[Baccalauréat|French Baccalaureate]], traditional topics such as Euclidean geometry and [[calculus]] were de-emphasized in favor of mathematical and [[formal logic]];<ref name=":0" /> ([[Naive set theory|naive]]) [[set theory]];<ref name=":0" /><ref name="Gispert" /> [[abstract algebra]] ([[Group (mathematics)|groups]], [[Ring (mathematics)|rings]], and [[Field (mathematics)|fields]]);<ref name=":0" /> [[real analysis]] (including the construction of [[Real number|real numbers]]<ref group="note">See [[Dedekind cut|Dedekind cuts]] and [[Cauchy sequence|Cauchy sequences]].</ref>);<ref name=":0" /> [[Complex number|complex numbers]];<ref name=":0" /> [[Probability theory|theory of probability]];<ref name=":0" /> [[number theory]];<ref name=":4">{{Cite news |last=Gandel |first=Stephen |date=May 30, 2015 |title=This 1958 Fortune article introduced the world to John Nash and his math |url=https://fortune.com/2015/05/30/john-nash-fortune-1958/ |archive-url=https://archive.today/20251117211237/https://fortune.com/2015/05/30/john-nash-fortune-1958/ |archive-date=November 17, 2025 |access-date=March 16, 2023 |work=Fortune}}</ref> and [[Radix|bases]] other than [[Base 10|10]].<ref group="note">See, for example, [[Binary number|binary arithmetic]], useful in computer science. Also see [[modular arithmetic]], previously known as clockwork arithmetic.</ref><ref name="Kline">{{cite book |last=Kline |first=Morris |author-link=Morris Kline |title=Why Johnny Can't Add: The Failure of the New Math |title-link=Why Johnny Can't Add: The Failure of the New Math |publisher=[[St. Martin's Press]] |year=1973 |isbn=0-394-71981-6 |location=New York}}</ref> In the case of [[Euclidean geometry]], the use of intuition and diagrams were replaced by a formal approach using [[linear algebra]] ([[linear transformations]] and [[Vector space|vector spaces]]).<ref name=":0" /> For example, the notion of the angle between two vectors<ref group="note">See the [[Dot product#Properties|properties of the dot produc]]t.</ref> were given with no diagrams at all while complex numbers were defined in terms of matrices and fields.<ref name=":0" /> Keeping track of non-decimal notation required the need to distinguish ''numbers'' (values) from the ''numerals'' that represent them.<ref>{{cite web |last=Raimi |first=Ralph |date=May 6, 2004 |title=Chapter 1: Max |url=http://web.math.rochester.edu/people/faculty/rarm/beberman.html |access-date=April 24, 2018}}</ref> This conception of mass public education was inherited from the interwar period and was taken for granted; the model for the elites was to be applied to all segments of society.<ref name="Gispert" />


{{blockquote|If we would like to, we can and do say, "The answer is a whole number less than 9 and bigger than 6," but we do not have to say, "The answer is a member of the set which is the [[Intersection (set theory)|intersection]] of the set of those numbers which are larger than 6 and the set of numbers which are smaller than 9" ... In the "new" mathematics, then, first there must be freedom of thought; second, we do not want to teach just words; and third, subjects should not be introduced without explaining the purpose or reason, or without giving any way in which the material could be really used to discover something interesting. I don't think it is worthwhile teaching such material.<ref>{{cite journal|author-link = Richard Feynman|first = Richard P.|last = Feynman|url = http://calteches.library.caltech.edu/2362/1/feynman.pdf|title = New Textbooks for the 'New' Mathematics|journal = [[Engineering and Science]]|year = 1965|volume = XXVIII|issue = 6|pages = 9–15|issn = 0013-7812}}</ref>}}
All of the New Math projects emphasized some form of [[Discovery learning|learning by discovery]].<ref>{{Cite web |last=Isbrucker |first=Asher |date=2021-04-21 |title=What Happened to 'New Math'? |url=https://medium.com/age-of-awareness/what-happened-to-new-math-eeb8522fc695 |access-date=2022-02-10 |website=Age of Awareness |language=en}}</ref> Students worked in groups to invent theories about problems posed in the textbooks.  Materials for teachers described the classroom as "noisy." Part of the job of the teacher was to provide [[instructional scaffolding]], that is, to move from table to table assessing the theory that each group of students had developed and "torpedo" wrong theories by providing [[counterexample]]s. For that style of teaching to be tolerable for students, they had to experience the teacher as a colleague rather than as an adversary or as someone concerned mainly with grading.  New Math workshops for teachers, therefore, spent as much effort on the [[pedagogy]] as on the mathematics.<ref>{{Cite web|title=Whatever Happened To New Math?|url=https://www.americanheritage.com/whatever-happened-new-math-0|access-date=2022-02-10|website=AMERICAN HERITAGE|language=en}}</ref>


In his book ''[[Why Johnny Can't Add: The Failure of the New Math]]'' (1973), [[Morris Kline]] says that certain advocates of the new topics "ignored completely the fact that mathematics is a cumulative development and that it is practically impossible to learn the newer creations, if one does not know the older ones".<ref name = Kline />{{rp|17}} Furthermore, noting the trend to [[Abstraction (mathematics)|abstraction]] in New Math, Kline says "abstraction is not the first stage, but the last stage, in a mathematical development".<ref name = Kline />{{rp|98}}
In [[Japanese mathematics|Japan]], New Math was supported by the [[Ministry of Education, Culture, Sports, Science and Technology]] (MEXT), but not without encountering problems, leading to [[Student-centred learning|student-centered]] approaches.<ref>{{cite web |title=第二次大戦後のわが国における数学教育の発展について― 「科学化運動」から「生きる数学」への飛翔 ― |url=https://www.researchgate.net/publication/37261895 |website=www.researchgate.net |lang=ja}}</ref>


As a result of this controversy, and despite the ongoing influence of the New Math, the phrase "new math" was often used to describe any short-lived fad that quickly becomes discredited{{citation needed|date=September 2024}} until around the turn of the millennium<ref>https://books.google.com/ngrams/graph?content=new+math&year_start=1800&year_end=2022&corpus=en&smoothing=3</ref>{{Better source needed|date=September 2024}}, when its use for this purpose was eclipsed by "[[New Coke]]," another short-lived innovation.<ref>https://books.google.com/ngrams/graph?content=New+Math%2CNew+Coke&year_start=1800&year_end=2022&corpus=en&smoothing=3</ref> In 1999, ''[[Time (magazine)|Time]]'' placed New Math on a list of the 100 worst ideas of the 20th century.<ref>{{cite magazine|url=http://content.time.com/time/magazine/article/0,9171,991230,00.html |title=The 100 Worst Ideas Of The Century |date=June 14, 1999 |access-date=April 3, 2020|magazine=[[Time (magazine)|Time]] |first1=Melissa |last1=August |first2=Harriet |last2=Barovick |first3=Michelle |last3=Derrow |first4=Tam |last4=Gray |first5=Daniel S. |last5=Levy |first6=Lina |last6=Lofaro |first7=David |last7=Spitz |first8=Joel |last8=Stein |first9=Chris |last9=Taylor}}{{subscription required}}</ref><ref>[http://www.anvari.org/fun/Political/100_Worst_Ideas_of_the_Century.html "100 Worst Ideas of the Century"], Anvari.org archive of the June 14, 1999, issue of ''[[Time (magazine)|Time]]''.</ref>
== Reception ==
By the early 1970s, the New Math initiative ran into problems. Mathematicians, physicists, members of professional societies, economists, and industrial leaders criticized the reforms as being suitable for neither schoolteachers nor students.<ref name="Gispert" /> Many teachers struggled to understand the new materials, let alone teach them. Parents, who had problems helping their children with homework, also opposed the reforms.<ref name=":18">{{Cite news |last=Knudson |first=Kevin |date=2015 |title=The Common Core is today's New Math – which is actually a good thing |url=https://theconversation.com/the-common-core-is-todays-new-math-which-is-actually-a-good-thing-46585 |access-date=September 9, 2015 |work=The Conversation}}</ref> In particular, the abandonment of classical geometry and an emphasis on [[Formalism (philosophy of mathematics)|formalism]] and [[Abstraction (mathematics)|abstraction]] were the main target of complaints.<ref name=":0" /> One member of the Lichnerowicz Commission in France asked, "Should we teach outdated mathematics to less intelligent children?" Lichnerowicz resigned and the commission was disbanded in 1973.<ref name="Gispert" />  


== In other countries ==
The New Math was criticized by experts, too. In a 1965 essay, physicist [[Richard Feynman]] argued, "first there must be freedom of thought; second, we do not want to teach just words; and third, subjects should not be introduced without explaining the purpose or reason, or without giving any way in which the material could be really used to discover something interesting. I don't think it is worthwhile teaching such material."<ref>{{cite journal |last=Feynman |first=Richard P. |year=1965 |title=New Textbooks for the 'New' Mathematics |url=http://calteches.library.caltech.edu/2362/1/feynman.pdf |journal=Engineering and Science |volume=XXVIII |issue=6 |pages=9–15 |issn=0013-7812}}</ref> In a 1971 article, mathematician [[René Thom]] rejected the New Math as "a test of memory that poisons intelligence" because of its complete neglect of intuition.<ref name=":0" /> Despite his contempt for classical geometry (he once declared "Down with Euclid!" at a meeting), mathematician [[Jean Dieudonné]] denounced the New Math as an "aggressive and stupid" method of teaching.<ref name=":0" /> In his 1973 book, ''[[Why Johnny Can't Add: the Failure of the New Math]]'', mathematician and historian of mathematics [[Morris Kline]] observed that it was "practically impossible" to learn new mathematical creations without first understanding the old ones, and that "abstraction is not the first stage, but the last stage, in a mathematical development."<ref name="Kline" />{{rp|17, 98}} Kline criticized the authors of the New Math textbooks, not for their mathematical faculty, but rather their narrow approach to mathematics, and their limited understanding of pedagogy and educational psychology.<ref>{{Cite journal |last=Gillman |first=Leonard |date=May 1974 |title=Review of ''Why Johnny Can't Add'' |journal=American Mathematical Monthly |volume=81 |issue=5 |pages=531–2 |jstor=2318615}}</ref> Mathematician and author [[George F. Simmons]] wrote in the algebra section of his textbook ''Precalculus Mathematics in a Nutshell'' (1981) that the New Math produced students who had "heard of the [[commutative law]], but did not know the [[multiplication table]]."<ref>{{cite book |last=Simmons |first=George F. |title=Precalculus Mathematics in a Nutshell: Geometry, Algebra, Trigonometry: Geometry, Algebra, Trigonometry |publisher=[[Wipf and Stock Publishers]] |year=2003 |isbn=978-1-59244-130-3 |page=33 |chapter=Algebra – Introduction |chapter-url=https://books.google.com/books?id=dN1KAwAAQBAJ&pg=PA33}}</ref> Mathematician [[Laurent Schwartz]] described the new reforms as "very poor" pedagogy. For him, "The goal of mathematics is ''not'' to [[Mathematical rigor|prove rigorously]] things that everyone knows. Instead, the goal is to find rich results and then, in order to make sure they are true, to prove them."<ref name=":0" /> Mathematician [[Gustave Choquet]] explained that the results of the New Math were "bound to be catastrophic" as it ignored the previous knowledge, needs, and motivation of students, the training of teachers, and the writing of suitable textbooks. Nor were there any attempts to [[Applied mathematics|apply mathematics]] to the sciences and engineering disciplines.<ref name=":0" />
In the broader context, reform of school mathematics curricula was also pursued in European countries, such as the [[United Kingdom]] (particularly by the [[School Mathematics Project]]), and [[France]] due to concerns that mathematics as taught in schools was becoming too disconnected from mathematics research, in particular that of the [[Nicolas Bourbaki|Bourbaki group]].<ref>{{Cite web|date=2017-07-15|title=L'enseignement des mathématiques au XXe siècle|url=http://culturemath.ens.fr/histoire%20des%20maths/htm/Gispert08-reformes/Gispert08.htm |lang=fr |access-date=2020-09-01|archive-url=https://web.archive.org/web/20170715164210/http://culturemath.ens.fr/histoire%20des%20maths/htm/Gispert08-reformes/Gispert08.htm|archive-date=2017-07-15}}</ref> In [[West Germany]] the changes were seen as part of a larger process of ''[[Education reform|Bildungsreform]]''. Beyond the use of set theory and different approach to [[arithmetic]], characteristic changes were [[transformation geometry]] in place of the [[Natural deduction|traditional deductive]] [[Euclidean geometry]], and an approach to [[calculus]] that was based on greater insight, rather than emphasis on facility.{{clarify|date=February 2011}}{{citation needed|date=February 2011}}


Again, the changes were met with a mixed reception, but for different reasons. For example, the end-users of mathematics studies were at that time mostly in the [[physical science]]s and [[engineering]], and they expected manipulative skill in calculus rather than more abstract ideas. Some compromises have since been required, given that [[discrete mathematics]] is the basic language of [[computing]].{{citation needed|date=February 2011}}
In 1999, ''[[Time (magazine)|Time]]'' magazine placed New Math on a list of the 100 worst ideas of the 20th century.<ref>{{cite magazine |url=http://content.time.com/time/magazine/article/0,9171,991230,00.html |title=The 100 Worst Ideas Of The Century |date=June 14, 1999 |access-date=April 3, 2020 |magazine=[[Time (magazine)|Time]] |first1=Melissa |last1=August |first2=Harriet |last2=Barovick |first3=Michelle |last3=Derrow |first4=Tam |last4=Gray |first5=Daniel S. |last5=Levy |first6=Lina |last6=Lofaro |first7=David |last7=Spitz |first8=Joel |last8=Stein |first9=Chris |last9=Taylor}}{{subscription required}}</ref><ref>[http://www.anvari.org/fun/Political/100_Worst_Ideas_of_the_Century.html "100 Worst Ideas of the Century"], Anvari.org archive of the June 14, 1999, issue of ''[[Time (magazine)|Time]]''.</ref>


Teaching in the [[Soviet Union|USSR]] did not experience such extreme upheavals, while being kept in tune, both with the applications and academic trends:
==Legacy==
By the end of the 1970s, the New Math was all but abandoned. Subsequent curricula were less ambitious and carried less content. Traditional topics were reinstated. Abstraction and rigorous proofs were supplanted by intuition and calculations.<ref name=":0" /> But this "counter-reform" attracted its share of criticisms as teaching students very little and mostly easy topics.<ref name=":0" />


For all the scathing criticisms that it has received for the New Math initiative, the influence of the Bourbaki school in mathematical education lived on, as the Soviet mathematician [[Vladimir Arnold]] recalled in a 1995 interview.<ref>{{Cite journal |last=Lui |first=S.H. |date=1995 |title=An Interview with Vladimir Arnold |url=https://www.ams.org/notices/199704/arnold.pdf |url-status=live |journal=Notices of the American Mathematical Society |volume=44 |issue=4 |pages=432–8 |archive-url=https://web.archive.org/web/20000930130302/http://www.ams.org/notices/199704/arnold.pdf |archive-date=September 30, 2000}}</ref> Teaching in the [[Soviet Union|USSR]] did not experience the extreme upheavals as seen in other countries, while being kept in tune, both with the applications and academic trends:
{{blockquote|Under [[Andrey Kolmogorov|A. N. Kolmogorov]], the mathematics committee declared a reform of the curricula of grades 4–10, at the time when the school system consisted of 10 grades. The committee found the type of reform in progress in Western countries to be unacceptable; for example, no special topic for sets was accepted for inclusion in school textbooks. [[Transformation geometry|Transformation approaches]] were accepted in teaching geometry, but not to such sophisticated level {{sic}} presented in the textbook produced by [[Vladimir Boltyansky]] and [[Isaak Yaglom]].<ref name="textbook">{{cite conference|chapter = The Third World Mathematics Education is a Hope for the World Mathematics Education Development in the 21st Century|first = George|last =  Malaty|chapter-url = http://math.unipa.it/~grim/EMALATY231-240.PDF |archive-url=https://web.archive.org/web/20050214093107/http://math.unipa.it/~grim/EMALATY231-240.PDF | archive-date= 14 February 2005 |url-status=dead |year = 1999|title = Proceedings of the International Conference Mathematics Education into the 21st Century: Societal Challenges, Issues and Approaches|pages = 231–240|location = Cairo, Egypt|conference = Mathematics Education into the 21st Century: Societal Challenges, Issues and Approaches}}</ref>}}
{{blockquote|Under [[Andrey Kolmogorov|A. N. Kolmogorov]], the mathematics committee declared a reform of the curricula of grades 4–10, at the time when the school system consisted of 10 grades. The committee found the type of reform in progress in Western countries to be unacceptable; for example, no special topic for sets was accepted for inclusion in school textbooks. [[Transformation geometry|Transformation approaches]] were accepted in teaching geometry, but not to such sophisticated level {{sic}} presented in the textbook produced by [[Vladimir Boltyansky]] and [[Isaak Yaglom]].<ref name="textbook">{{cite conference|chapter = The Third World Mathematics Education is a Hope for the World Mathematics Education Development in the 21st Century|first = George|last =  Malaty|chapter-url = http://math.unipa.it/~grim/EMALATY231-240.PDF |archive-url=https://web.archive.org/web/20050214093107/http://math.unipa.it/~grim/EMALATY231-240.PDF | archive-date= 14 February 2005 |url-status=dead |year = 1999|title = Proceedings of the International Conference Mathematics Education into the 21st Century: Societal Challenges, Issues and Approaches|pages = 231–240|location = Cairo, Egypt|conference = Mathematics Education into the 21st Century: Societal Challenges, Issues and Approaches}}</ref>}}
 
In the United States, an enduring contribution of the New Math initiative was the teaching of calculus in high school. (See [[AP Calculus|Advance Placement Calculus]].)<ref name=":3" />
In [[Japanese mathematics|Japan]], New Math was supported by the [[Ministry of Education, Culture, Sports, Science and Technology]] (MEXT), but not without encountering problems, leading to [[Student-centred learning|student-centred]] approaches.<ref>{{cite web |url=https://www.researchgate.net/publication/37261895 |title=第二次大戦後のわが国における数学教育の発展について― 「科学化運動」から「生きる数学」への飛翔 ― |lang=ja |website=www.researchgate.net}}</ref>


==In popular culture==
==In popular culture==
{{Listen|type=music|image=none|help=no
|filename=3-10_New_Math.mp3
|title="New Math" (1965)
|description=Musician and mathematician [[Tom Lehrer]] satirised New Math through song.}}
* Musician and university mathematics lecturer [[Tom Lehrer]] wrote a [[Satire|satirical]] song named "[[New Math (song)|New Math]]" (from his 1965 album ''[[That Was the Year That Was]]''), which revolved around the process of subtracting 173 from 342 in decimal and [[octal]]. The song is in the style of a lecture about the general concept of subtraction with [[positional notation]] in an arbitrary base, illustrated by two simple calculations, and highlights the New Math's emphasis on insight and abstract concepts – as Lehrer sardonically put it, "In the new approach ... the important thing is to understand what you're doing, rather than to get the right answer." At one point in the song, he notes that "you've got thirteen and you take away seven, and that leaves five... well, six, actually, but the idea is the important thing." The chorus pokes fun at parents' frustration and confusion over the entire method: "Hooray for New Math, New Math / It won't do you a bit of good to review math / It's so simple, so very simple / That only a child can do it."<ref>{{cite web|first = Tom|last = Lehrer|author-link = Tom Lehrer|url = https://genius.com/Tom-lehrer-new-math-lyrics|title = New Math Lyrics|year = 2019|publisher = [[Genius (website)|Genius Media Group]]|access-date = May 19, 2019}}</ref>
* Musician and university mathematics lecturer [[Tom Lehrer]] wrote a [[Satire|satirical]] song named "[[New Math (song)|New Math]]" (from his 1965 album ''[[That Was the Year That Was]]''), which revolved around the process of subtracting 173 from 342 in decimal and [[octal]]. The song is in the style of a lecture about the general concept of subtraction with [[positional notation]] in an arbitrary base, illustrated by two simple calculations, and highlights the New Math's emphasis on insight and abstract concepts – as Lehrer sardonically put it, "In the new approach ... the important thing is to understand what you're doing, rather than to get the right answer." At one point in the song, he notes that "you've got thirteen and you take away seven, and that leaves five... well, six, actually, but the idea is the important thing." The chorus pokes fun at parents' frustration and confusion over the entire method: "Hooray for New Math, New Math / It won't do you a bit of good to review math / It's so simple, so very simple / That only a child can do it."<ref>{{cite web|first = Tom|last = Lehrer|author-link = Tom Lehrer|url = https://genius.com/Tom-lehrer-new-math-lyrics|title = New Math Lyrics|year = 2019|publisher = [[Genius (website)|Genius Media Group]]|access-date = May 19, 2019}}</ref>
* In 1965, cartoonist [[Charles Schulz]] authored a series of ''[[Peanuts]]'' strips, which detailed kindergartener Sally's frustrations with New Math. In the first strip, she is depicted puzzling over "sets, one-to-one matching, equivalent sets, non-equivalent sets, sets of one, sets of two, renaming two, [[subset]]s, joining sets, number sentences, placeholders." Eventually, she bursts into tears and exclaims, "All I want to know is, how much is two and two?"<ref name="gocomics">{{cite web|url = http://www.gocomics.com/peanuts/2012/10/02|title = Peanuts by Charles Schulz for October 02, 2012|date = October 2, 1965|access-date = May 19, 2019|website = [[GoComics]]|publisher = [[Universal Uclick]]|author-link = Charles Schulz|first = Charles|last = Schulz}}</ref> This series of strips was later adapted for the 1973 ''Peanuts'' animated special ''[[There's No Time for Love, Charlie Brown]]''.  Schulz also drew a one-panel illustration of Charlie Brown at his school desk exclaiming, "How can you do 'New Math' problems with an 'Old Math' mind?"<ref>{{cite web|author-link = Charles Schulz|first = Charles|last = Schulz|url = https://www.chisholm-poster.com/posters/CL68406.html|title = Charlie Brown Poster (1970s) &ndash; Peanuts &ndash; How Can You do "New Math" Problems with an "Old Math" Mind?|via = Chisholm Larsson Gallery|access-date = May 19, 2019}}</ref>
* In 1965, cartoonist [[Charles Schulz]] authored a series of ''[[Peanuts]]'' strips, which detailed kindergartener Sally's frustrations with New Math. In the first strip, she is depicted puzzling over "sets, one-to-one matching, equivalent sets, non-equivalent sets, sets of one, sets of two, renaming two, [[subset]]s, joining sets, number sentences, placeholders." Eventually, she bursts into tears and exclaims, "All I want to know is, how much is two and two?"<ref name="gocomics">{{cite web|url = http://www.gocomics.com/peanuts/2012/10/02|title = Peanuts by Charles Schulz for October 02, 2012|date = October 2, 1965|access-date = May 19, 2019|website = [[GoComics]]|publisher = [[Universal Uclick]]|author-link = Charles Schulz|first = Charles|last = Schulz}}</ref> This series of strips was later adapted for the 1973 ''Peanuts'' animated special ''[[There's No Time for Love, Charlie Brown]]''.  Schulz also drew a one-panel illustration of Charlie Brown at his school desk exclaiming, "How can you do 'New Math' problems with an 'Old Math' mind?"<ref>{{cite web|author-link = Charles Schulz|first = Charles|last = Schulz|url = https://www.chisholm-poster.com/posters/CL68406.html|title = Charlie Brown Poster (1970s) &ndash; Peanuts &ndash; How Can You do "New Math" Problems with an "Old Math" Mind?|via = Chisholm Larsson Gallery|access-date = May 19, 2019}}</ref>
* In the 1966 ''[[Hazel (TV series)|Hazel]]'' episode "A Little Bit of Genius", the show tackles the division that the introduction of New Math wrought between families, friends, and neighbors, as well as its impact on the then ever-widening generation gap.<ref>{{Citation |last=Russell |first=William D. |title=A Little Bit of Genius |date=1966-04-04 |url=https://www.imdb.com/title/tt1368938/ |series=Hazel |access-date=2022-04-10}}</ref>
* In the 1966 ''[[Hazel (TV series)|Hazel]]'' episode "A Little Bit of Genius", the show tackles the division that the introduction of New Math wrought between families, friends, and neighbors and its impact on the then ever-widening generation gap.<ref>{{Citation |last=Russell |first=William D. |title=A Little Bit of Genius |date=1966-04-04 |url=https://www.imdb.com/title/tt1368938/ |series=Hazel |access-date=2022-04-10}}</ref>


==See also==
==See also==
Line 50: Line 42:
* [[Common core]]
* [[Common core]]
* [[Comprehensive School Mathematics Program]] (CSMP)
* [[Comprehensive School Mathematics Program]] (CSMP)
* [[André Lichnerowicz]] &ndash; Created 1967 French Lichnerowicz Commission
* [[List of abandoned education methods]]
* [[List of abandoned education methods]]
* [[Math wars|New New Math]] – a satirical term for the Math Wars of the 1990s
* [[Math wars|New New Math]] – a satirical term for the Math Wars of the 1990s
Line 56: Line 47:
* [[School Mathematics Study Group]] (SMSG)
* [[School Mathematics Study Group]] (SMSG)
* [[Secondary School Mathematics Curriculum Improvement Study]] (SSMCIS)
* [[Secondary School Mathematics Curriculum Improvement Study]] (SSMCIS)
== Notes ==
<references group="note" />


==References==
==References==
{{Reflist|30em}}
{{reflist}}


==Further reading==
==Further reading==
* {{cite book|author-link = Irving Adler|last = Adler|first = Irving|title = The New Mathematics|location = New York|publisher = [[John Day Company]]|year = 1972|edition = revised|isbn = 0-381-98002-2}}
* {{cite book|author-link = Irving Adler|last = Adler|first = Irving|title = The New Mathematics|location = New York|publisher = [[John Day Company]]|year = 1972|edition = revised|isbn = 0-381-98002-2}}
* {{cite book|first = Maurice|last =  Mashaal|year = 2006|title = Bourbaki: A Secret Society of Mathematicians|publisher = [[American Mathematical Society]]|isbn = 9780821839676|chapter = New Math in the Classroom|chapter-url = https://books.google.com/books?id=-CXn6y_1nJ8C&pg=PA134|pages = 134&ndash;145}} This work was originally published as ''Bourbaki: une société secrète de mathématiciens'' (2002, {{isbn|2842450469}}, in French) and the 2006 English-language version was translated by Anna Pierrehumbert.
* {{cite book|last = Phillips|first = Christopher J.|title = The New Math: A Political History|year = 2014|publisher = [[University of Chicago Press]]|isbn = 9780226185019}}
* {{cite book|last = Phillips|first = Christopher J.|title = The New Math: A Political History|year = 2014|publisher = [[University of Chicago Press]]|isbn = 9780226185019}}
* Raimi, Ralph A. (1995). [https://web.math.rochester.edu/people/faculty/rarm/smsg.html ''Whatever Happened to the New Math?'']
* Raimi, Ralph A. (1995). [https://web.math.rochester.edu/people/faculty/rarm/smsg.html ''Whatever Happened to the New Math?''] {{Webarchive|url=https://web.archive.org/web/20201210022700/https://web.math.rochester.edu/people/faculty/rarm/smsg.html |date=2020-12-10 }}


==External links==
==External links==

Latest revision as of 23:52, 23 December 2025

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File:Spines of New Math paperbacks from 1960s.jpg
Paperback introductions to the New Math in the United States

New Mathematics or New Math was a dramatic but temporary change in the way mathematics was taught in grade schools which started in France and spread to many other countries between 1950s and 1970s.

Overview

Following World War II, the Western world underwent substantial economic and technological transformations and the training of scientists and engineers was seen as crucial for further economic growth. Furthermore, in the context of the Cold War, the launch of the world's first artificial satellite Sputnik by the Soviet Union in 1957 raised concerns that the West was falling behind. To this end, educational reforms—including in mathematics, which underlies the natural sciences and engineering—were considered necessary.[1] In Europe, reform of school mathematical curricula was pursued by multiple countries, including the United Kingdom (particularly by the School Mathematics Project), and West Germany, where the changes were seen as part of a larger process of Bildungsreform. In the United States, the educational status quo was severely criticized as sorely lacking on substance and as a source of national humiliation, prompting Congress to introduce the National Defense Education Act of 1958,[2] pouring enormous sums of money into not just research and development but also STEM education.[3]

Indeed, during the postwar era, the importance of modern mathematics—especially mathematical logic, optimization, and numerical analysis—was acknowledged for its usefulness during the war. From this sprang proposals for reforms in mathematics education. The international movement to bring about such reforms was launched in the late 1950s, with heavy French influence. In France, they also grew out of a desire to bring the subject as it was taught in schools closer to the research done by pure mathematicians, particularly the Nicholas Bourbaki school, which emphasized an austere and abstract style of doing mathematics, axiomatization.[note 1] Up until the 1950s, the purpose of primary education was to prepare students for life and future careers. This changed in the 1960s. A commission headed by André Lichnerowicz was established to work out the details of the desired reforms in mathematical education. At the same time, the French government mandated that the same courses be taught to all schoolchildren, regardless of their career prospects and aspirations. Thus the same highly abstract courses in mathematics were taught to not just those willing and able to pursue university studies but also those who left school early to join the workforce.[4]

File:Illustration of the law of sines, with b*sin(gamma) and c*sin(beta) being the length of the same altitude of a triangle.svg
In the New Math curriculum for traditional topics such as geometry, geometric intuition and diagrams, like this illustration of the law of sines, were eschewed in favor of an austere and abstract presentation in terms of linear algebra.

In France, from elementary school to the French Baccalaureate, traditional topics such as Euclidean geometry and calculus were de-emphasized in favor of mathematical and formal logic;[1] (naive) set theory;[1][4] abstract algebra (groups, rings, and fields);[1] real analysis (including the construction of real numbers[note 2]);[1] complex numbers;[1] theory of probability;[1] number theory;[5] and bases other than 10.[note 3][6] In the case of Euclidean geometry, the use of intuition and diagrams were replaced by a formal approach using linear algebra (linear transformations and vector spaces).[1] For example, the notion of the angle between two vectors[note 4] were given with no diagrams at all while complex numbers were defined in terms of matrices and fields.[1] Keeping track of non-decimal notation required the need to distinguish numbers (values) from the numerals that represent them.[7] This conception of mass public education was inherited from the interwar period and was taken for granted; the model for the elites was to be applied to all segments of society.[4]

All of the New Math projects emphasized some form of learning by discovery.[8] Students worked in groups to invent theories about problems posed in the textbooks. Materials for teachers described the classroom as "noisy." Part of the job of the teacher was to provide instructional scaffolding, that is, to move from table to table assessing the theory that each group of students had developed and "torpedo" wrong theories by providing counterexamples. For that style of teaching to be tolerable for students, they had to experience the teacher as a colleague rather than as an adversary or as someone concerned mainly with grading. New Math workshops for teachers, therefore, spent as much effort on the pedagogy as on the mathematics.[9]

In Japan, New Math was supported by the Ministry of Education, Culture, Sports, Science and Technology (MEXT), but not without encountering problems, leading to student-centered approaches.[10]

Reception

By the early 1970s, the New Math initiative ran into problems. Mathematicians, physicists, members of professional societies, economists, and industrial leaders criticized the reforms as being suitable for neither schoolteachers nor students.[4] Many teachers struggled to understand the new materials, let alone teach them. Parents, who had problems helping their children with homework, also opposed the reforms.[11] In particular, the abandonment of classical geometry and an emphasis on formalism and abstraction were the main target of complaints.[1] One member of the Lichnerowicz Commission in France asked, "Should we teach outdated mathematics to less intelligent children?" Lichnerowicz resigned and the commission was disbanded in 1973.[4]

The New Math was criticized by experts, too. In a 1965 essay, physicist Richard Feynman argued, "first there must be freedom of thought; second, we do not want to teach just words; and third, subjects should not be introduced without explaining the purpose or reason, or without giving any way in which the material could be really used to discover something interesting. I don't think it is worthwhile teaching such material."[12] In a 1971 article, mathematician René Thom rejected the New Math as "a test of memory that poisons intelligence" because of its complete neglect of intuition.[1] Despite his contempt for classical geometry (he once declared "Down with Euclid!" at a meeting), mathematician Jean Dieudonné denounced the New Math as an "aggressive and stupid" method of teaching.[1] In his 1973 book, Why Johnny Can't Add: the Failure of the New Math, mathematician and historian of mathematics Morris Kline observed that it was "practically impossible" to learn new mathematical creations without first understanding the old ones, and that "abstraction is not the first stage, but the last stage, in a mathematical development."[6]Template:Rp Kline criticized the authors of the New Math textbooks, not for their mathematical faculty, but rather their narrow approach to mathematics, and their limited understanding of pedagogy and educational psychology.[13] Mathematician and author George F. Simmons wrote in the algebra section of his textbook Precalculus Mathematics in a Nutshell (1981) that the New Math produced students who had "heard of the commutative law, but did not know the multiplication table."[14] Mathematician Laurent Schwartz described the new reforms as "very poor" pedagogy. For him, "The goal of mathematics is not to prove rigorously things that everyone knows. Instead, the goal is to find rich results and then, in order to make sure they are true, to prove them."[1] Mathematician Gustave Choquet explained that the results of the New Math were "bound to be catastrophic" as it ignored the previous knowledge, needs, and motivation of students, the training of teachers, and the writing of suitable textbooks. Nor were there any attempts to apply mathematics to the sciences and engineering disciplines.[1]

In 1999, Time magazine placed New Math on a list of the 100 worst ideas of the 20th century.[15][16]

Legacy

By the end of the 1970s, the New Math was all but abandoned. Subsequent curricula were less ambitious and carried less content. Traditional topics were reinstated. Abstraction and rigorous proofs were supplanted by intuition and calculations.[1] But this "counter-reform" attracted its share of criticisms as teaching students very little and mostly easy topics.[1]

For all the scathing criticisms that it has received for the New Math initiative, the influence of the Bourbaki school in mathematical education lived on, as the Soviet mathematician Vladimir Arnold recalled in a 1995 interview.[17] Teaching in the USSR did not experience the extreme upheavals as seen in other countries, while being kept in tune, both with the applications and academic trends:

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Under A. N. Kolmogorov, the mathematics committee declared a reform of the curricula of grades 4–10, at the time when the school system consisted of 10 grades. The committee found the type of reform in progress in Western countries to be unacceptable; for example, no special topic for sets was accepted for inclusion in school textbooks. Transformation approaches were accepted in teaching geometry, but not to such sophisticated level [sic] presented in the textbook produced by Vladimir Boltyansky and Isaak Yaglom.[18]

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In the United States, an enduring contribution of the New Math initiative was the teaching of calculus in high school. (See Advance Placement Calculus.)[2]

In popular culture

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  • Musician and university mathematics lecturer Tom Lehrer wrote a satirical song named "New Math" (from his 1965 album That Was the Year That Was), which revolved around the process of subtracting 173 from 342 in decimal and octal. The song is in the style of a lecture about the general concept of subtraction with positional notation in an arbitrary base, illustrated by two simple calculations, and highlights the New Math's emphasis on insight and abstract concepts – as Lehrer sardonically put it, "In the new approach ... the important thing is to understand what you're doing, rather than to get the right answer." At one point in the song, he notes that "you've got thirteen and you take away seven, and that leaves five... well, six, actually, but the idea is the important thing." The chorus pokes fun at parents' frustration and confusion over the entire method: "Hooray for New Math, New Math / It won't do you a bit of good to review math / It's so simple, so very simple / That only a child can do it."[19]
  • In 1965, cartoonist Charles Schulz authored a series of Peanuts strips, which detailed kindergartener Sally's frustrations with New Math. In the first strip, she is depicted puzzling over "sets, one-to-one matching, equivalent sets, non-equivalent sets, sets of one, sets of two, renaming two, subsets, joining sets, number sentences, placeholders." Eventually, she bursts into tears and exclaims, "All I want to know is, how much is two and two?"[20] This series of strips was later adapted for the 1973 Peanuts animated special There's No Time for Love, Charlie Brown. Schulz also drew a one-panel illustration of Charlie Brown at his school desk exclaiming, "How can you do 'New Math' problems with an 'Old Math' mind?"[21]
  • In the 1966 Hazel episode "A Little Bit of Genius", the show tackles the division that the introduction of New Math wrought between families, friends, and neighbors and its impact on the then ever-widening generation gap.[22]

See also

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Notes

  1. Thus instead of the intuitive approach which often necessitates the memorization of rules and formulas for problem-solving, one begins with definitions and axioms then derives theorems from them. Concrete calculations are de-emphasized in favor of abstract proofs.
  2. See Dedekind cuts and Cauchy sequences.
  3. See, for example, binary arithmetic, useful in computer science. Also see modular arithmetic, previously known as clockwork arithmetic.
  4. See the properties of the dot product.

References

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  16. "100 Worst Ideas of the Century", Anvari.org archive of the June 14, 1999, issue of Time.
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Further reading

External links

Template:Mathematics education Template:Authority control