Literature DB >> 20658354

Influence of national culture on the adoption of integrated medical curricula.

Mariëlle Jippes1, Gerard D Majoor.   

Abstract

Integrated curricula have been implemented in medical schools all over the world. However, among countries different relative numbers of schools with integrated curricula are found. This study aims to explore the possible correlation between the percentage of medical schools with integrated curricula in a country and that country's cultural characteristics. Curricula were defined as not integrated if in the first 2 years of the program at least two out of the three monodisciplinary courses Anatomy, Physiology and Biochemistry were identified. Culture was defined using Hofstede's dimensions Power distance, Uncertainty avoidance, Masculinity/Femininity, and Individualism/Collectivism. Consequently, this study had to be restricted to the 63 countries included in Hofstede's studies which harbored 1,195 medical schools. From each country we randomly sampled a maximum of 15 schools yielding 484 schools to be investigated. In total 91% (446) of the curricula were found. Correlation of percent integrated curricula and each dimension of culture was determined by calculating Spearman's Rho. A high score on the Power distance index and a high score on the Uncertainty avoidance index correlated with a low percent integrated curricula; a high score on the Individualism index correlated with a high percent integrated curricula. The percentage integrated curricula in a country did not correlate with its score on the Masculinity index. National culture is associated with the propensity of medical schools to adopt integrated medical curricula. Consequently, medical schools considering introduction of integrated and problem-based medical curricula should take into account dimensions of national culture which may hinder the innovation process.

Entities:  

Mesh:

Year:  2010        PMID: 20658354      PMCID: PMC3074082          DOI: 10.1007/s10459-010-9236-5

Source DB:  PubMed          Journal:  Adv Health Sci Educ Theory Pract        ISSN: 1382-4996            Impact factor:   3.853


Introduction

Globalization has confronted higher education with cross-cultural issues. For instance, currently students from developing countries may enroll in higher education in industrialized countries. Apart from adapting their daily lives to another culture, these students also may have to adapt to a pedagogical approach which may be different from that encountered in their secondary school education (Charlesworth 2008). One may also wonder whether new didactic approaches, like problem-based learning (PBL) developed in industrialized countries, can also be applied in different cultural settings (Gwee 2008). The current interest of universities in developed countries to incept satellite institutions in developing countries has added cross-cultural management of education to the issues pertaining to cross-cultural teaching and learning (Eldridge and Cranston 2009). In this study we aim to investigate the impact of national culture on the propensity of educational institutions to adopt educational innovations. We explored whether national culture is related with the relative number of medical schools in a country that adopted integrated medical curricula. As of the middle of the previous century medical curricula based on monodisciplinary courses in basic and (pre-)clinical sciences have been challenged. Major disadvantages identified for this discipline-based curriculum model were (1) exclusion of contacts of students with patients in the pre-clinical phase; (2) the haphazard sequence of presentation of basic sciences courses frustrating integration in a knowledge-base relevant for clinical contexts; and (3) departmental autonomy over the courses yielding programs to educate mini-scientists (Papa and Harasym 1999). In response, innovative curricula were constructed built from educational units focusing on organ systems or clinical problem areas like pain or blood loss. For such ‘integrated curricula’ both integration of basic sciences (‘horizontal integration’) and of basic sciences with clinical sciences (‘vertical integration’) was advocated (Harden et al. 1984). Integrated curricula have been implemented by a growing number of medical schools all over the world, including schools based in industrialized and in developing countries. However, differences exist between countries with respect to the relative number of medical schools that adopted integrated curricula. Focusing on Europe a preponderance of schools with problem-based learning (PBL) curricula was observed in the North of Europe and few successful implementations of such curricula in the European Mediterranean countries. An impact of national culture on the successful implementation of PBL and integrated curricula was supposed (Jippes and Majoor 2008; Stevens 2009). In our 2008 study we demonstrated for 17 European countries a correlation between the relative number of medical schools with integrated curricula and two out of four dimensions of culture as defined by Hofstede (Jippes and Majoor 2008; Hofstede 2001). According to him, Power distance is ‘the extent to which the less powerful members of institutions and organizations within a country expect and accept that power is distributed unequally’. A high score on the sliding scale of the Individualism/Collectivism index indicates Individualism and ‘pertains to societies in which the ties between individuals are loose: everybody is expected to look after him/herself and his/her immediate family’. A low score on the Individualism/Collectivism index indicates Collectivism and ‘pertains to societies in which people from birth onwards are integrated into strong, cohesive in-groups, which throughout people’s lifetime continue to protect them in exchange for unquestioning loyalty’. A high score on the sliding scale of the Masculinity/Femininity index indicates Masculinity and ‘pertains to societies in which social gender roles are clearly distinct (i.e. men are supposed to be assertive, tough, and focused on material success, whereas women are supposed to be more modest, tender, and concerned with the quality of life)’. A low score on the Masculinity/Femininity index indicates Femininity and ‘pertains to societies in which social gender roles overlap (i.e. both men and women are supposed to be modest, tender and concerned with the quality of life)’. Uncertainty avoidance is ‘the extent to which the members of a culture feel threatened by uncertain or unknown situations. This feeling is, among others, expressed through nervous stress and in a need for predictability: a need for written and unwritten rules’. European countries scoring high on Hofstede’s indexes for the dimensions ‘Power distance’ and/or ‘Uncertainty avoidance’ had relatively less medical schools with integrated curricula. No correlation was found with two other of Hofstede’s dimensions of culture, i.e. ‘Individualism/Collectivism’ and ‘Masculinity/Femininity’. Based on a literature review in 2000 Bland et al. (2000) identified 13 factors contributing to successful curriculum change. Some of these factors were also emphasized in a book chapter published by Davis and White (2002). As indicated by the latter authors, studies like these may be biased towards North America and thus almost eliminate the possible impact of different national cultures. On the other hand, world-wide medical schools consider or attempt to introduce integrated and PBL curricula. Being aware of the potential impact of culture on the innovation process and trying to circumvent possible negative aspects may help to prevent frustration and waste of time and money. Therefore, this study aims to investigate at global scale whether a relation exists between the relative number of medical schools with integrated curricula in a country and that country’s scores on Hofstede’s indexes for four dimensions of culture. Based on our findings for Europe we hypothesized countries scoring high on Hofstede’s indexes for the culture dimensions ‘Power distance’ and/or ‘Uncertainty avoidance’ to have relatively less medical schools with integrated medical curricula than countries scoring low on the indexes for these dimensions. No relation was presumed with the culture dimensions ‘Individualism/Collectivism’ and ‘Masculinity/Femininity’.

Methods

To investigate the influence of national culture on the adoption of integrated medical curricula ‘national culture’ and ‘integrated curricula’ had to be defined and operationalized. A representative sample of medical schools from all over the world was needed that would allow for testing the above hypothesis.

Definition of national culture

In the 1970’s Hofstede surveyed through questionnaires employees of IBM branches in 80 countries dispersed over the world to record their perception of organizational culture in the office. Criticism on Hofstede’s derived construct of dimensions of culture includes the restricted population sample of IBM employees and his presumption that each country harbours one culture. Nevertheless, Hofstede’s dimensions of culture are widely adopted and suited to perform our studies. Fourty individual countries were included in his initial studies (Hofstede 1980). Later another 10 countries and 3 clusters of countries were added: Arab World, seven countries; East-Africa, four countries; and West-Africa, three countries. Clusters of countries were created because countries therein did not meet Hofstede’s inclusion criteria for individual countries (Hofstede 2001). From his data Hofstede extracted the four dimensions of culture quoted in the Introduction and a fifth one: Short/Long term orientation. In principle for each country and each cluster of countries scores on semi-quantitative indexes for each dimension of culture were calculated. However, the dimension ‘Short/long term orientation’ could not be included in this study because only a limited number of countries were assessed on that dimension. Furthermore, Yugoslavia was deleted from Hofstede’s selection of individual countries because the country does not exist anymore.

Assessment of integrated and non-integrated curricula

The first 2 years of the curricula of medical schools were assessed to differentiate between integrated and non-integrated curricula. The curriculum was scored as non-integrated if at least two of the common preclinical disciplines Anatomy, Physiology and Biochemistry were presented as individual courses (Aziz and Cullen 1994). If none or only one of these courses was found the curriculum was assumed to be integrated. Screening of curricula was performed independently by both authors. Disconcordant classifications of curricula (41 out of 461 cases) were re-examined and discussed to reach consensus.

Sample of medical schools

The design of this study dictated that only medical schools based in the 64 countries investigated by Hofstede (minus Yugoslavia) could be used to sample medical schools from. According to the World Directory of Medical Schools (WDMS) in 2003 these countries and clusters of countries harbored 1,184 medical schools (WHO 2003). In that directory Taiwan was not represented. For Taiwan 11 medical schools were sampled from the International Medical Education Directory (IMED) of the Foundation for Advancement of International Medical Education and Research (FAIMER 2008), yielding a total number of 1,195 medical schools. If the number of medical schools in an individual country did not exceed 15 all schools were included. From 19 countries with more than 15 medical schools (range 16–148) 15 schools were sampled at random representing at least 10% of the total number of schools in that country. Four countries assigned by Hofstede to the cluster East-Africa (Ethiopia, Kenya, Tanzania and Zambia) contained eight medical schools which were all included. Seven countries included in the cluster ‘Arab World’ (Egypt, Iraq, Kuwait, Lebanon, Libya, Saudi-Arabia and the United Arab Emirates) harbored 40 medical schools from which a stratified random sample of 15 was drawn. The same procedure was applied to the 19 medical schools based in the three countries assigned to the cluster West-Africa (Ghana, Nigeria and Sierra Leone). These sampling procedures yielded a final sample of 484 medical schools based in 63 countries representing all continents.

Collection of information on curricula

Websites of sampled medical schools were searched for specification of their curriculum of the first 2 years. Information on most European schools was collected from June–August 2006 and on all other schools from June–October 2008. If a school’s website could not be found, or if the website did not yield adequate information that medical school was contacted by e-mail. In case the request by e-mail elicited no response a fax was sent, if necessary followed by a surface mail. If all attempts to establish contact failed colleagues in the same country as the unresponsive school were asked for help to retrieve information. Websites and electronic files provided in languages not mastered by us were translated into English through the website ‘www.translate.google.com’. The languages of Thailand and Indonesia were not supported by this site; for that purpose, respectively, ‘www.thai2english.com’ and ‘www.yyy.sederet.com/translate.php’ were used. If translation programs did not yield adequate information bilingual colleagues were contacted to translate the essential information to English.

Statistical analysis

SPSS version 15 was used to calculate Spearman’s Rho: correlation coefficients (CC) between the percent medical schools with an integrated curriculum in a country and that country’s scores on the respective indexes of four of Hofstede’s dimensions of culture. A correlation was considered significant if P < 0.05 (2-tailed).

Results

Satisfactory information on the first 2 years of the curriculum could be collected from 466 of the 484 medical schools included in the sample (91%). The curricula of nine medical schools in Iran could not be directly accessed. However, two colleagues in Iran independently assured us that medical schools in their country all had similar, non-integrated curricula. In Venezuela information on only five out of the nine medical schools in that country was obtained and therefore this country was excluded from further analyses. Eventually a total of 461 medical curricula were included in the analysis. In 14 countries none of the medical schools examined had an integrated curriculum and in 6 countries all medical schools had integrated curricula. Overall 134 of the 461 medical curricula examined (29%) were classified as integrated (Table 1).
Table 1

Percent integrated medical curricula in 49 countries and 3 clusters of countries and their scores on Hofstede’s indexes for 4 dimensions of culture

CountryMedical schoolsa Dimensions of cultureb
TotalIncludedIntegrated curricula (%)PD scoreIND scoreMAS scoreUA score
Arab World4014c,d 2980385268
Argentina1413d 1549465686
Australia111110036906151
Austria3310011557970
Belgium1110e 1065755494
Brazil8212c,d 1769384976
Canada1615c 7339805248
Chile774363232886
Colombia2812c,d 3367136480
Costa Rica55035152186
Denmark333318741623
East Africa881364274152
Ecuador109d 117886367
El Salvador66066194094
Finland556033632659
France4515c 068714386
Germany3915c 3335676665
Greece770603557112
Guatemala22095637101
Hong Kong2210068255729
India14615c 077485640
Indonesia3214c,d 2178144648
Iran4615c 058414359
Ireland554028706835
Israel44013544781
Italy3115c 050767075
Jamaica1110045396813
Japan8015c 1354469592
Malaysia87d 86104265036
Mexico5615c 2081306982
New Zealand2210022795849
Norway44503169850
Pakistan2514c,d 1455145070
Panama33095114486
Peru1713c,d 864164287
Philippines3011c,d 994326444
Portugal54d 0632731104
Singapore111007420488
South Africa887549656349
South Korea4913c,d 860183985
Spain2615c 057514286
Sweden66673171529
Switzerland556034687058
Taiwan119d 1158174569
Thailand1210d 4064203464
The Netherlands888838801453
Turkey3314c,d 5066374585
United States14115c 5340916246
United Kingdom2715c 8735896635
Uruguay110613638100
Venezuela90f
West Africa1910c,d 077204654
Total1,195461134 (29)

PD power distance, IND individualism, MAS masculinity, UA uncertainty avoidance

aAccording to the World Directory of Medical Schools (WHO 2000, 2003)

bDimensions and scores according to Hofstede (2001)

cRandom stratified sample of 15

dNo data were available for 1 or more universities in this country

eExcept 1 university which did not offer pre-clinical training

fExcluded because only 5 curricula could be found

Percent integrated medical curricula in 49 countries and 3 clusters of countries and their scores on Hofstede’s indexes for 4 dimensions of culture PD power distance, IND individualism, MAS masculinity, UA uncertainty avoidance aAccording to the World Directory of Medical Schools (WHO 2000, 2003) bDimensions and scores according to Hofstede (2001) cRandom stratified sample of 15 dNo data were available for 1 or more universities in this country eExcept 1 university which did not offer pre-clinical training fExcluded because only 5 curricula could be found Scatter plots for the variables ‘percent integrated curricula in a country’ and that country’s ‘score on the index’ for each of the four dimensions of culture are shown in Fig. 1. Significant negative correlations were found between percent integrated curricula and a country’s score on the Power distance index (CC = −0.352, P = 0.01) and the Uncertainty avoidance index (CC = −0.658, P = 0.000), and a significant positive correlation with the score on the Individualism index (CC = 0.387, P = 0.005). No significant correlation was found between the percentage of integrated curricula in a country and that country’s score on the Masculinity index.
Fig. 1

Scatterplots of scores of 49 countries and 3 clusters of countries on indexes for each of 4 dimensions of culture (Hofstede 2001) and percent integrated medical curricula. CC correlation coefficient, NS not significant

Scatterplots of scores of 49 countries and 3 clusters of countries on indexes for each of 4 dimensions of culture (Hofstede 2001) and percent integrated medical curricula. CC correlation coefficient, NS not significant

Discussion

A significant correlation was found between the relative number of integrated medical curricula in a country and that country’s scores on indexes for three dimensions of culture as defined by Hofstede (2001). In accord with our hypothesis, respectively, a high score on Power distance and a high score on Uncertainty avoidance correlated with a low percentage of integrated curricula in a country. At variance with our working hypothesis a high score of a country on the Individualism index was also found to correlate significant with a high percentage integrated curricula. In our study focusing on Europe explanations for the correlation of strong Power distance and strong Uncertainty avoidance with a low percentage integrated curricula were presented. In brief, we reasoned that implementation of an integrated curriculum requires a shift from departmental control over courses to curriculum control by multidisciplinary committees (Majoor and Kolle 1997). In schools in countries with strong Power distance professors may independently design the courses in their respective disciplines. By contrast, integration of the curriculum requires discussions with staff from different departments in interdisciplinary settings. Strong Power distance may impede heads of department to effectively participate in such negotiations. Curriculum change in a school in a country with strong Uncertainty avoidance may be difficult due to adherence of staff to existing national laws and university rules. “Fear of the unknown” may hamper curriculum innovation in those countries. Moreover, in some studies a significant correlation has been observed between the cultural dimensions Power distance and Uncertainty avoidance (Jippes and Majoor 2008; Hofstede 1991). With respect to Individualism it has been demonstrated that managers in individualistic societies prefer undertaking innovations outside organizational norms, rules and procedures (“renegade championing”; Shane and Venkataraman 1996). This may explain the correlation between a high score on the Individualism index and a high percentage of schools with integrated curricula. Conversely, in a society with strong emphasis on Collectivism, harmony and mutual respect are very important. To change from a departmentally controlled curriculum towards an integrated curriculum negotiations among colleagues from different departments are necessary, which could elicit conflict and therefore may rather be avoided. Another possible explanation for the correlation between Collectivism and low percentage of integrated curricula may derive from the relation between the Individualism/Collectivism dimension and gross domestic product (GDP). Strong Collectivism in a society has been shown to correlate with a low national GDP (Hofstede 2001). Obviously innovation of medical curricula (including transformation from non-integrated to integrated curricula) may be obstructed by lack of financial resources. For the countries examined in this study a low percentage of integrated curricula correlated with a low GDP (CC = 0.491, P = 0.000) (two-tailed). No correlation was found between the percentage of integrated curricula in a country and its score on the Masculinity index. Departing from the theoretical readiness of students to accept PBL, countries scoring low on Masculinity (and low on Uncertainty avoidance) were reasoned as more likely to adopt integrated curricula than countries scoring high on Masculinity (and high on Uncertainty avoidance; Stevens 2009). However, several limitations of this study must be taken into account when estimating the reliability and validity of the outcomes. First, the definition of culture chosen may have negatively affected the validity of this study. Criticism on Hofstede’s dimensions of culture includes doubts about the validity of his concept of ‘national culture’. For instance, Baskerville (2003) noted that one nation may harbor several cultures, as demonstrated for instance in the Middle East where—according to the Encyclopedia of World Cultures—14 nations harbor 35 different cultures (O’ Leary and Levinson 1991). Although analytical descriptions of culture different from Hofstede’s are available, none of these assigned ‘quantitative’ scores on ‘cultural dimensions’ to individual countries or regions (see for instance Schwartz and Bilsky (1987); Smith and Charles (2004); Trompenaars and Woolliams (2005)). Hence these descriptions of culture are not suited for a study as presented here. Second, the inclusion criteria applied to define the world-wide sample of medical schools may have affected the reliability of the results. The World Directory of Medical Schools of 2000 was used to identify medical schools in Europe (WHO 2000). To list all schools beyond Europe the 2003 update of WDMS was used because 29 non-European schools were added compared to the 2000 edition (WHO 2003). The 2003 WDMS was used rather than a more recent update to ascertain that curricula had been in place for at least 5 years. Third, overall from 9% of the schools in the sample no information could be obtained. There may be a bias in those non-responsive schools in terms of these being more conservative (e.g., because they do not feature a website) and having non-integrated curricula. Fourth, another restriction with respect to the validity of the outcomes pertains to the discrimination of integrated and non-integrated curricula. Although the criterion of presence of two out of three basic sciences courses (i.e., Anatomy, Biochemistry and Physiology) is unambiguous, new names for “old” courses incidentally forced us to judge whether for instance ‘functional morphology’ was similar to anatomy and ‘molecular chemistry’ to biochemistry. In some medical curricula of schools in Latin America we found ‘morphophysiology’ courses occupying a prominent part of the program for the first 2 years including content matter from the three basic sciences specified above. Colleagues in Latin America assured us that such ‘morphophysiology’ courses are taught in the context of organ systems, and therefore should be considered integrated. In Indonesia, Japan, South Korea, as well as in the U.S. we encountered one school with a curriculum which was not integrated in the first and/or second year but clearly integrated in subsequent years. Such curricula may be referred to as ‘hybrid curricula’ (Nandi et al. 2000; Jaffarey 2001). In accord with our criterion these curricula were scored as non-integrated. We verified that changing the classification of these four curricula to ‘integrated’ did not change the conclusions from this study. Fifth, another dilemma faced with respect to discriminating integrated and non-integrated curricula regarded schools in the U.S. and Canada, which are usually preceded by bachelor programs. For two reasons we decided to base our curriculum assessment on the first 2 years of the medical schools and to ignore the pre-medical bachelor programs. First, because we intended to assess curricula of medical schools and pre-medical bachelor programs may be offered by different schools. Second, even in medical schools which pioneered with implementation of integrated PBL curricula—like McMaster University in Canada and the University of New Mexico in the U.S.—pre-medical bachelor programs were found to be non-integrated. To various extent reports in the literature supported our classification of integrated and non-integrated curricula. For the U.S. 70% of the medical schools were mentioned to have PBL (and thus integrated) curricula (Kinkade 2005); we scored 53% of the 10.6% of all U.S. schools in our sample as having integrated curricula. Reports on the individual curricula of Ziauddin Medical University in Pakistan (Huda and Brula 1999), University of Transkei in South Africa (Iputo 1999), University of Hong Kong (Nandi et al. 2000), National University of Singapore (Khoo et al. 2001), and Rosario University in Argentina (Carrera et al. 2003) confirmed our independent classification of their curricula as integrated. Three reports described isolated PBL courses offered by different medical schools in India (Vyas et al. 2008; Chandra et al. 1996; Ghosh and Pandya 2008). This finding is not incompatible with our conclusion drawn from the sample of 10.3% of all medical schools in India that all had non-integrated curricula. The same holds for the National Yang-Ming University in Taiwan whose curriculum was assessed as non-integrated whereas some courses were reported to be taught in PBL format (Yu et al. 2000). Furthermore, we classified the curriculum of the University of Malaya in Malaysia as non-integrated although from that school an article was published on the process of implementing an integrated curriculum (Azila et al. 2001). Perhaps that school’s curriculum changed after our assessment. Although this study has some limitations it demonstrates that national culture is associated with the propensity of medical schools to adopt integrated curricula. If a medical school is situated in a country with high scores on the indexes for Power distance and/or Uncertainty avoidance and/or a low score on the index for Individualism and considers adoption of an integrated or PBL curriculum, that school should take into account the potential hindering effects of these national cultural factors. To mitigate cultural barriers to curriculum innovation, resources are available providing advice with respect to strategies for change of an organization, both in general (Kotter 2003; William 2003) and specifically for medical and health professions schools (Neufeld et al. 1995). We intend to expand our studies in two directions. Firstly, we aim to investigate whether scores on indexes for the three cultural dimensions counteracting curriculum change act independently or synergistically. Secondly, we intend to explore why in some countries with cultural characteristics counteracting curriculum change surprisingly many schools succeeded to implement integrated curricula. Studying the curriculum change processes performed in these ‘outliers’ may reveal factors which possibly can help to overcome adverse cultural conditions.
  12 in total

1.  An introductory course on study skills forming a bridge between traditional and problem based learning (PBL).

Authors:  N Huda; A Q Brula
Journal:  J Pak Med Assoc       Date:  1999-02       Impact factor: 0.781

Review 2.  Undergraduate medical education: comparison of problem-based learning and conventional teaching.

Authors:  P L Nandi; J N Chan; C P Chan; P Chan; L P Chan
Journal:  Hong Kong Med J       Date:  2000-09       Impact factor: 2.227

Review 3.  Curricular change in medical schools: how to succeed.

Authors:  C J Bland; S Starnaman; L Wersal; L Moorehead-Rosenberg; S Zonia; R Henry
Journal:  Acad Med       Date:  2000-06       Impact factor: 6.893

4.  Problem based learning.

Authors:  N A Jaffarey
Journal:  J Pak Med Assoc       Date:  2001-08       Impact factor: 0.781

5.  Problem-based, small-group tutorial learning in clinical neurology for second-year medical students.

Authors:  H Y Yu; Z A Wu; M S Su; D J Yen; H R Luk; Y C Chao; K K Liao; K P Lin; S M Yu; H C Liu
Journal:  Zhonghua Yi Xue Za Zhi (Taipei)       Date:  2000-08

Review 6.  Implementing a problem-based learning curriculum in an Argentinean medical school: implications for developing countries.

Authors:  Larisa Ivón Carrera; Tomás Eduardo Tellez; Alberto Enrique D'Ottavio
Journal:  Acad Med       Date:  2003-08       Impact factor: 6.893

7.  A snapshot of the status of problem-based learning in U. S. medical schools, 2003-04.

Authors:  Scott Kinkade
Journal:  Acad Med       Date:  2005-03       Impact factor: 6.893

8.  Influence of national culture on the adoption of integrated and problem-based curricula in Europe.

Authors:  Mariëlle Jippes; Gerard D Majoor
Journal:  Med Educ       Date:  2008-03       Impact factor: 6.251

9.  Pharmacotherapeutic education through problem based learning and its impact on cognitive and motivational attitude of Indian students.

Authors:  D Chandra; S Sharma; G Sethi; S Dkhar
Journal:  Eur J Clin Pharmacol       Date:  1996       Impact factor: 2.953

10.  Implementation of Integrated Learning Program in neurosciences during first year of traditional medical course: perception of students and faculty.

Authors:  Sarmishtha Ghosh; Himanshu V Pandya
Journal:  BMC Med Educ       Date:  2008-09-24       Impact factor: 2.463

View more
  9 in total

1.  Extending the theoretical framework for curriculum integration in pre-clinical medical education.

Authors:  John Vergel; Diana Stentoft; Juny Montoya
Journal:  Perspect Med Educ       Date:  2017-08

2.  Use of simulation-based medical training in Swiss pediatric hospitals: a national survey.

Authors:  Martin Stocker; Kathryn Laine; Francis Ulmer
Journal:  BMC Med Educ       Date:  2017-06-17       Impact factor: 2.463

3.  How clinical medical students perceive others to influence their self-regulated learning.

Authors:  Joris J Berkhout; Esther Helmich; Pim W Teunissen; Cees P M van der Vleuten; A Debbie C Jaarsma
Journal:  Med Educ       Date:  2016-11-23       Impact factor: 6.251

4.  Cultural influence on generational gaps: A case for medical education in the Gulf region.

Authors:  Amal A Bukhari; Yoon S Park; Omayma A Hamed; Ara S Tekian
Journal:  Saudi Med J       Date:  2019-06       Impact factor: 1.484

5.  Development of a national medical leadership competency framework: the Dutch approach.

Authors:  Wouter A Keijser; Henricus J M Handgraaf; Liz M Isfordink; Vincent T Janmaat; Pieter-Paul A Vergroesen; Julia M J S Verkade; Sietse Wieringa; Celeste P M Wilderom
Journal:  BMC Med Educ       Date:  2019-11-28       Impact factor: 2.463

6.  Towards Culture-Oriented Medical Philosophy, Education, Research and Practice.

Authors:  Nasser Hammad Al-Azri
Journal:  Sultan Qaboos Univ Med J       Date:  2020-12-21

7.  Medical Students' and Trainees' Country-By-Gender Profiles: Hofstede's Cultural Dimensions Across Sixteen Diverse Countries.

Authors:  Lynn V Monrouxe; Madawa Chandratilake; Julie Chen; Shakuntala Chhabra; Lingbing Zheng; Patrício S Costa; Young-Mee Lee; Orit Karnieli-Miller; Hiroshi Nishigori; Kathryn Ogden; Teresa Pawlikowska; Arnoldo Riquelme; Ahsan Sethi; Diantha Soemantri; Andy Wearn; Liz Wolvaardt; Muhamad Saiful Bahri Yusoff; Sze-Yuen Yau
Journal:  Front Med (Lausanne)       Date:  2022-02-08

8.  Using activity theory to study cultural complexity in medical education.

Authors:  Janneke M Frambach; Erik W Driessen; Cees P M van der Vleuten
Journal:  Perspect Med Educ       Date:  2014-06

9.  How clinical reasoning is taught and learned: Cultural perspectives from the University of Melbourne and Universitas Indonesia.

Authors:  Ardi Findyartini; Lesleyanne Hawthorne; Geoff McColl; Neville Chiavaroli
Journal:  BMC Med Educ       Date:  2016-07-21       Impact factor: 2.463

  9 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.