A Collection of Articles on Children’s Education

A Collection of Articles on Children’s Education8%

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Publisher: www.ecrp.uiuc.edu
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A Collection of Articles on Children’s Education
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A Collection of Articles on Children’s Education

A Collection of Articles on Children’s Education

Author:
Publisher: www.ecrp.uiuc.edu
English

This book is corrected and edited by Al-Hassanain (p) Institue for Islamic Heritage and Thought


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Volume 2 Number 2

©The Author(s) 2000

Language Development and Science Inquiry: The Head Start on Science and Communication Program

Evelyn R. Klein

LaSalle University

Penny L. Hammrich, Stefanie Bloom, & Anika Ragins

Temple University

Abstract

There are ongoing discussions about the best way to teach science to young children during the preschool and early elementary school years. What practice is most likely to contribute to children's development and learning while cultivating exploration, questioning skills, and revision of thinking to accommodate new ideas in science? The Head Start on Science and Communication (HSSC) Program is based on collaborative research from the fields of science education and language development. Program objectives have been aligned with the curriculum and are based on the national science standards for young children. The HSSC Program evolved over four years of research and implementation at schools in Pennsylvania, New Jersey, and Washington, DC. The initial phase of the program included input from parents, teachers, and teaching assistants to help develop lessons and shape the inquiry-based strategies for young children learning about life science, earth science, and physical science. The second phase of the program incorporated curriculum materials and investigative experiments to promote inquiry-based, hands-on science as a vehicle for promoting young children's language development. Children learned to match, discriminate, categorize, sequence, and associate information as they worked with peers to understand science concepts, relate facts, and solve scientific problems. As a result of participating in the HSSC Program, teachers employed collaborative learning strategies, engaging in small-group problem-solving teams with verbal interactions among teachers and students. Outcomes also included positive changes in teachers' questioning strategies. Teachers became proficient in asking more open-ended questions at increasing levels of difficulty instead of basic factual and yes-no questions. Preliminary data from a study of 85 first-grade students who engaged in a series of 12 science experiments indicated that prior to the program, they answered an average of 58% of the factual-type questions correctly and 15% of the application-type questions correctly. After learning about topics such as earth surfaces, minerals, changing colors, seeds, and plants, these children answered the factual-type questions with 96% accuracy and the application-type questions with 92% accuracy, indicating a significant gain in knowledge beyond the p < .05 level for both types of questions. Students improved their knowledge of science concepts along with their ability to answer questions requiring higher-level cognitive skills. Teachers noted students' improved knowledge of science and enhanced language development.

Introduction

There are ongoing discussions about the best way to teach science to young children during the preschool and early elementary school years (Bell & Gilbert, 1996). What practices are most likely to contribute to children's development and learning is the question that parents, teachers, and the research communities want answered. We know that young children's thinking is expanded through their cognitive development as well as their personal experiences. Children must explore, ask questions, and revise their thinking to accommodate new ideas (Mundry & Loucks-Horsley, 1999).

This article discusses a model that fosters science learning through a systematic approach to understanding language at increasingly higher levels of abstraction by using questioning skills to elicit factual and application information. Language skills are supported with hands-on, visually engaging materials for learning about life science, earth science, and physical science during the primary grades. At the Mid-Atlantic Laboratory for Student Success headquartered at Temple University Center for Research in Human Development and Education, science educators and speech-language specialists have developed a science curriculum that promotes the content of and process for learning about science in contexts that young children can experience and understand.

Instructional Methods

Most early childhood programs incorporate both explicit teacher-led activities, in which the students follow the teacher's directives; and exploratory, teacher-facilitated activities, in which students guide instruction based on their interests and curiosity (Fradd & Lee, 1999). These two practices stem from different theories and philosophies of how young children learn and the role adults play in the learning process. Explicit curriculum models for preschool are based upon behavioral learning principles. This theory is linked to learning theories in which cognitive competence is assumed to be transmitted through the process of repetition and reinforcement (Stipek & Byler, 1997). The explicit models use a highly structured teaching approach for acquiring academic skills. The skills emphasized tend to be those assessed by general intelligence and achievement tests. Teachers may lead small groups of children in structured question-and-answer lessons and drills. Teachers also spend much time correcting errors to keep children from learning incorrect answers. Workbooks and paper/pencil-oriented activities are generally included in the learning process (Schweinhart & Weikart, 1997).

The other approach incorporates the exploratory model of learning and suggests that children construct their knowledge by confronting and solving problems through direct experience and use of manipulative objects (Stipek & Byler, 1997). The goal of the exploratory teaching model is to create an environment in which children may explore, learn, and develop when involved with naturally interesting materials and events. In such a setting, there are no structured responses. Rather, activities lend themselves to creativity and exploration (Stipek & Byler, 1997). In exploratory models, the teacher's role is to serve as a facilitator for the children by providing them with opportunities to engage in activities and interact with their peers. Teachers who are unfamiliar with the "facilitator role" may be uncomfortable and feel as if they are not teaching according to the curriculum.

Long-term and short-term studies have looked at the different outcomes of these two approaches toward early childhood education and their impact on cognitive and social-emotional development (Becker & Gersten, 1982; DeVries, 1991; Gersten, 1986; Schweinhart, 1997; Schweinhart & Weikart, 1997).

Some researchers believe the explicit-directed type of teaching is management driven. Cuban says, "The basic imperative of elementary schooling is 'to manage large numbers of students who are forced to attend school and absorb certain knowledge in an orderly fashion'" (as cited in Goldstein, 1997, p. 5). Cuban explains that this demand has led to the development of a curriculum approach that is linked directly to the challenge of managing children. Other researchers believe this type of curriculum is superior to exploratory, child-centered models, especially for children of low-income families. Delpit (1995) maintains that the explicit-directed type of curriculum values basic skills over creative thinking and is necessary because of the value society places on highly structured skills-oriented programs. Schweinhart and Weikart (1997) state that explicit, teacher-directed instruction may lead to a temporary improvement in academic performance at the cost of missed opportunities for long-term growth in personal and social behavior. They support the use of an exploratory, child-centered curriculum to further develop social responsibility and enhance interpersonal skills. Additional research reports that children in exploratory, child-centered programs display better language development and verbal skills (Dunn & Kontos, 1997).

Both approaches have value in educating young children. Some of the questions that have been asked include the following: Which is better for the teacher? Which is better for children in developing cognitive competence? and What curriculum models are best for enhancing the social-emotional development of young children? We know that students can benefit from both the explicit and exploratory approaches. "Instead of viewing these approaches as opposing camps, they could be conceptualized as complementary opportunities for teachers to move between perspectives" (Fradd & Lee, 1999, p. 16).

One of the goals of this paper is to provide an example of an effective program for developing science knowledge and language skills with young children that incorporates both explicit, teacher-directed methods and exploratory, teacher-facilitated methods.

Head Start on Science and Communication (HSSC) is the early science program that has been implemented in classrooms that use the Adaptive Learning Environment Model (ALEM) (Wang, 1992), a cornerstone of the Community for Learning (CFL) comprehensive school reform model. This instructional program provides the infrastructure for blending exploratory and explicit learning to support children's unique abilities and individual differences. The program has been highly influenced by over two decades of research and broad, field-based implementation of innovative school programs (Wang, Haertel, & Walberg, 1995). CFL "draws itself from the field-based implementation of an innovative instructional program that focuses on school organization and instructional delivery in ways that are responsive to the development and learning needs of the individual child, the research base on fostering educational resilience of children and the youth beset by multiple co-occurring risks, and the forging of functional connections among school, family, and community resources in coordinated ways to significantly improve the capacity for the development and education of children and youth" (Wang, 1998, p. 10).

Developmentally Appropriate Practices

In connection with the instructional model, the National Association for the Education of Young Children (NAEYC) recommends that developmentally appropriate practices be adopted. Developmentally appropriate practices (DAP) are not a curriculum; however, they provide standards for identifying high-quality early childhood education programs. DAP emphasizes the treatment of children as individuals with the ability to make choices about their educational experience (Bredekamp & Copple, 1997).

The HSSC Program has implemented NAEYC's suggestions in the classroom to meet children's individual needs. These recommendations include, but are not limited to, (1) ensuring that classrooms function as caring communities so they can help children learn how to establish positive and constructive relationships with adults and other children; (2) providing opportunities for the children to accomplish meaningful tasks and experiences in which they can succeed most of the time; and (3) preparing a learning environment that fosters children's initiative, active exploration of materials, and sustained engagement with other children, adults, and activities. Further recommendations include planning a variety of concrete learning experiences that are relevant to children and providing opportunities for children to plan and make choices about their own activities from a variety of learning centers.

Appropriate opportunities for learning are further supported by providing an environment that cultivates receptive and expressive language and cognitive development. As preschoolers proceed through stages of language development and cognitive growth, they gain skills in acquiring vocabulary, understanding simple stories, following directions of increasing complexity, and learning about causal relations. Their expressive skills expand to use grammatically appropriate sentences, and they learn to exchange ideas in discussion, discuss why something happened, ask questions related to a topic, and retell a simple story by kindergarten age. As young children expand their vocabulary, they begin to differentiate likeness and differences and to match, discriminate, and categorize objects and events through paired comparisons. Such emergent skills are precursors to later reading and writing. As young children gradually refine their visual perception and explore their environment, they learn to sequence events in logical order. They begin to make associations and can compare objects on the basis of different attributes. These abilities lead to higher-level skills of planning, making judgments, and solving problems. Throughout this time, children learn that their communication has an effect on others and on their own ability to get what they want (McLean & McLean, 1999).

Classroom Dynamics

The manner in which the teacher structures learning opportunities and the methods used to foster interaction among students while learning are critical to supporting language and cognitive development. Howes and Phillipsen (1998), in their study on the effects of preschool interaction, found that low levels of child-teacher closeness when a child is 4 years old lead to social withdrawal in second grade and that prosocial ratings in second grade were best predicted by preschool classrooms that were high in children spending time interacting with peers. This finding supports the recommendation of NAEYC that teachers serve as facilitators to children's self-initiated activities. Teachers can not only provide instruction but also provide opportunities for children to explore concrete materials and interact with peers (Bredekamp & Copple, 1997). Teachers can circulate around the room responding to students' requests, giving individual instruction, or offering feedback and reinforcement (Wang, 1992).

Students' internal motivation to succeed is further fostered by a classroom environment that incorporates cooperative learning activities. In such classrooms, students tend to be less focused on how they are doing relative to their peers and are more focused on learning for its own sake. According to Nicholls (1990), students in classrooms with a cooperative learning structure focus more on how to accomplish tasks, and they view making mistakes as part of a process towards learning. "Depending on the type of classroom structure teachers choose, they are communicating a view of success or failure to their students that can have a critical impact on children's beliefs" (Bempechat, 2000, p. 12).

A Best Practice Model

In deciding how to encourage students to explore the nature and meaning of science while developing their comprehension and expression, science educators and language development specialists have developed a curriculum that is both explicit and exploratory in nature, taking the best qualities of each. The curriculum is based on the (1) American Association for the Advancement of Science Project 2061 science benchmarks (AAAS, 1993); (2) developmentally appropriate practices; and (3) language skills for classroom communication (Farber & Klein, 1999).

The developers of the HSSC Program have based their thinking on a few guiding principles. Young children have a natural tendency to explore. Children's daily playtime activities engage them in "science." Science education in school unites cognitive development and children's prior knowledge and experience with intuitive scientific theories to formulate new ideas. As they develop explanations about the world around them, they are learning broad scientific concepts. While they are discovering their world, they are questioning and investigating. Rather than looking at isolated science concepts, science for the early childhood student is an introduction to the "big picture." Newer approaches also emphasize learning that maximizes students' individual competencies. Using an interactive process to enhance students' questioning abilities (Stone, 1994), the HSSC Program encourages social interaction, discourse, and questioning during science lessons. This interactive, analytic approach tends to improve kindergarten children's planning and problem-solving skills. Students are asked to describe and communicate their ideas as they make sense of their own learning, drawing from prior knowledge and asking questions to acquire information. This interactive inquiry-based perspective is supported by the National Science Education Standards (National Academy of Sciences, 1996).

Program Description

The Head Start on Science and Communication (HSSC) Program was initially conceived to unite parents and teachers to promote current and future success in science for children in preschool, kindergarten, and first grade. The HSSC Program emphasizes the development of children's language skills through an explicit, teacher-directed approach and an exploratory, child-centered approach to acquiring science knowledge. The program aims to achieve three very specific goals:

broadening participants' science knowledge and conceptions around three science domains: life science, earth science, and physical science;

enhancing age-appropriate abilities through scientific inquiry for observing, hypothesizing, predicting, investigating, interpreting, and drawing conclusions; and

integrating science with communication to recall, identify change, generalize, analyze, judge, and solve problems.

The two phases of the HSSC Program are described below. Phase I included outreach and planning with parents and teachers in the community; phase II was an instructional scaling-up attempt to incorporate specific science experiments in classrooms.

Phase I

The participants in phase I of the study represented Head Start programs from 18 schools in Philadelphia and New Jersey. Participants included 18 teachers, 11 classroom assistants, and 10 parents, ranging from 19 to 53 years of age, and included three ethnic groups: African American (68%), Caucasian (29%), and Latino (3%). Eighty-five percent of the Head Start programs represented were based in large urban settings, and 15% were based in suburban or rural settings. Although the educational background of participants varied, none of the participating parents held college degrees.

All participants received interactive inquiry-based training to broaden their general science knowledge about life science, earth science, and physical science, and to create strategies to establish learning environments that encourage an inquiry approach to everyday learning in school and at home. A basic design principle of the HSSC Program is the inclusion of parents in the learning process. This element was critical to the success of the planning phase.

Program Components

Phase I of the HSSC Program included three components: (1) a summer institute that provided intensive, hands-on instruction and learning experiences for participants; (2) ongoing follow-up technical assistance and training support for program implementation; and (3) extended implementation of the HSSC Program with the first cohort of participants in community-based science-rich centers such as area museums, as well as moving into phase II of the program.

The focus of the two-week summer training program was to provide professional development and an opportunity to promote collaboration among teachers and parents for improving problem-solving skills. The primary goal of the summer institute was to create a lifelong interest in science for participants and the children with whom they interact. In keeping with the intent of the National Science Education Standards, the HSSC curriculum materials were developed to assist participants in fostering their own and the children's "natural curiosity" to learn about the world.

The curriculum materials and experiments were designed to promote inquiry-based, hands-on science as a vehicle for language development with young children. Each experiment begins with background information about the topic under investigation and a teacher demonstration module that provides an opportunity for teachers to engage students with manipulative materials and ask guided questions to gain more information about what students know and what they need to learn. As the project participants implemented these plans that were developed during the summer, the technical support became increasingly site-specific, based on individual classroom needs. For example, one teacher expressed the need to learn about various inferential questioning techniques, while another teacher requested strategies for promoting student collaboration.

Data Collection

Data on program implementation were obtained through surveys, on-site observations, and interviews. Participants (teachers, teaching assistants, and parents) were rated as either "encouraging inquiry," because the participants asked questions that helped students gain needed information to solve problems, or "giving away," because the adult immediately answered questions asked by students. In addition, on-site observations were conducted to determine each classroom's primary mode of interaction. Classrooms were classified as "collaborative" or "competitive." The post-implementation surveys were followed by semi-structured, open-ended interviews to learn more about classroom interaction.

Phase I Findings

Changes in Questioning Strategies

Preliminary findings from the post-implementation surveys indicated that 50% of the teachers relied solely on the use of questioning to encourage students' problem solving, 33% encouraged problem solving as well as giving away the answers, and 17% tended to simply "give away" answers as opposed to using questions to get children to try to solve the problems themselves. The majority of parents (83%) engaged in both questioning to encourage problem solving and giving away answers; 17% engaged in giving away answers only; and "none" engaged in only using questioning to encourage problem solving. Almost half of the classroom assistants reported that they tended to give away answers. In summary, classroom assistants gave away substantially more answers to students when compared with teachers and parents, who encouraged more problem solving through questioning.

Changes in Classroom Interaction

A teacher's philosophy and his or her interaction with students have been found to have a major impact on how students view success and failure. Nicholls (1990) has shown that traditional, competitive classrooms produce children who are overly concerned with how they are doing relative to their peers. This competitive style makes children anxious about mistakes, and students tend to equate their mistakes with failure. This anxiety has been found to affect children's beliefs about themselves and their abilities. Conversely, cooperative classrooms foster a sense of learning through accepting mistakes as experiences for growth. Nicholls further points out that the challenge for teachers is to help students maintain a healthy balance among accepting mistakes as opportunities to learn, believing they have the ability to learn, and knowing that effort will help them maximize that ability. Prior to training, the 12 observed classrooms lacked collaborative interaction among teachers and students. Following the training (spring 1997), the classrooms were observed to determine if there was a change in their primary mode of interaction. Eight of the 12 classrooms were rated as collaborative, engaging in small-group problem-solving teams with verbal interactions among teachers and students. Teachers not only asked questions of students but also encouraged students to ask questions for clarification, to understand that learning takes time, and to understand that mistakes are accepted when followed up with new information to solve problems. Three classes were found to be both collaborative and competitive, fluctuating in interactions during the course of the day. Only one class remained predominantly competitive in nature. Collaborative interactions included working together on projects, with students assuming varied and complementary roles as they worked on problem-solving activities in science. Characteristics of classroom interactions included listening, waiting, acknowledging comments, inviting questions, accepting others' points of view, and encouraging students to express ideas. Competitive interactions included activities that focused on performance with a form of grading attached.

Changes in Classroom Focus

When interviewed after program implementation, participants indicated that they changed their classroom focus to be primarily inquiry-based (75% of classes). The participants said they used more open-ended questions with their students instead of asking yes-no type questions. They asked "wh"-type questions (i.e., who, what, where, when, why, and how) with much greater frequency (encouraging recall, application, and problem solving). Some teachers set up science centers and other exploratory learning centers within the classroom setting.

Generally, parent involvement reinforced classroom learning. Teachers sent letters to parents, explaining what would be discussed in class and encouraging parents to visit the classroom. Teachers and assistants discovered that the use of language that targeted vocabulary development and questions was integral to enhancing learning and engagement of young children. Teachers reported making a difference in the children's scope of cause-effect knowledge.

At the completion of phase I, participants had many ideas for the future of the HSSC Program. Some teachers planned to engage other faculty members in brainstorming questions that tapped inferential thinking for science experiments. Other teachers looked forward to involving more parents, noting that parental involvement is one key to successful program implementation. Overall, participants anticipated implementing the techniques and using the ideas they learned. Because of the success of phase I, the program was expanded from preschool children to those in the early elementary years (kindergarten through grade 2). Phase II of the program included further implementation, refinement of program materials, and expansion to kindergarten through grade-2classrooms.

Phase II

Phase II of the HSSC Program involves the formal development of 30 science experiments and a manual covering three science domains: life science, earth science, and physical science (see the appendix). The experiments are based on benchmarks written by the National Science Foundation (National Academy of Sciences, 1996). Using specific language concepts and scientific background information, the teacher initially tests students individually using the pre-test to assess the student's knowledge base. Following the pre-test, the teacher introduces each science experiment to a small group of students or to the entire class. Students also have an opportunity to engage in exploration using the manipulatives and directions within science activity kits. After the experiment is completed, the post-test is administered to assess a student's content knowledge gains.

The HSSC Program encourages children's natural inclination to explore by providing an early learning environment that is conducive to science literacy. The HSSC Program incorporates the use of individualized hands-on science learning activity boxes as well as small-group and whole-class instruction. Providing hands-on learning experiences fosters curiosity in young children and engages them in the social and cognitive processes that promote language and communication skills essential to continued academic success. The combination of explicit, teacher-directed methods and exploratory, child-centered methods allows young children to obtain information, explore their surroundings, and develop meaning, thus honing their communication and problem-solving skills.

The explicit role of the teacher is an important component of this early childhood program. As a facilitator, the teacher assists individual students in gaining new scientific knowledge by relating experiences and answering personal questions when appropriate. Initially, teachers facilitate the demonstration lesson that introduces the scientific concepts embedded in the students' individualized activities. The classroom teacher provides background information and supports students as they learn newly introduced science material. Manipulative materials and supplies for the science activities are all included in 150 individually boxed learning activity kits.

After each science demonstration, the teacher asks probing questions to determine students' general concept understanding. Based on the lesson taught during the science demonstration, the students will have the opportunity to use their knowledge to work through a series of science activities that are organized into five levels. The science activities are arranged hierarchically by cognitive level from basic matching tasks to higher-level associations based on understanding relationships.

The first level in the hierarchical structure of the program is matching. While the students work on the first science activity, they are encouraged to identify likeness among objects. This level is followed by level 2, a discrimination task. This level focuses on the student's ability to not only identify similarities but to also distinguish differences. These activities help foster the ability to compare and contrast, a basic scientific process (Hammrich, 1998). Level 3 focuses on categorization. Children use their ability to discover similarities and organize information into like units. Level 4 requires the ability to order information for sequencing. Students arrange various items according to patterns or gradations, noting specific stages and order. The final level, level 5, involves an association activity. These activities incorporate previous knowledge levels and challenge students to transfer information, understand relationships, and make new connections.

To demonstrate understanding of scientific concepts, students answer six post-experiment questions that directly relate to the five activity levels. The post-assessment questions are based on a modified taxonomy derived from Bloom (1984). To determine if children have acquired knowledge from engaging in the experiments, students must initially recall factual information. This type of question draws on the student's knowledge of previously introduced information. Table 1 provides a brief look at the six questioning levels that tap increasingly more demanding cognitive abilities.

Table 1

Program Results

The Head Start on Science and Communication (HSSC) Program was implemented in five large urban public school first-grade classrooms in Washington, DC, and Trenton, New Jersey, during the 1999-2000 school year. There were a total of 101 children in the sample population. Of these students, 98 participated in the pre-test (53 females, 45 males), and 85 of those children participated in the post-test (44 females, 41 males). The ages of these students ranged from 7 to 8 years old with a racial composition of 87% African American and 13% Hispanic. Results of the HSSC Program were derived from student performance on the "Unit Pre-Post Tests for Life, Earth, and Physical Sciences" and degree of implementation and classroom processes derived from classroom observations.

Twelve experiments are discussed in this section. Because of the late start of the program within the school year, not all 30 experiments could be completed by teachers and students. Generally, one demonstration experiment with follow-up activities was conducted weekly.

The science and language concepts for each of the 12 experiments of life science, earth science, and physical science include the following:

Changing Fish: change, adaptation, and variations among fish and their environments

Coloring Celery: levels of water and absorption of plants

Evaporating Liquids: wet, dry, and moisture associated with events

Blowing Across: movement, distance, air, and wind

Gathering Nature: plant and animal features for comparison and classification

Finding Earth: varieties of environmental surfaces

Growing Seeds: patterns, similarities, and differences in growth

Making Plants: parts and wholes of plants and their functions

Moistening Seeds: sunlight, moisture, and development of the seed

Organizing Rocks: grouping characteristics and textures

Bouncing High: height, movement, and force

Bubbling Air: space, observation, and size

Implementation of the HSSC Program

The first-grade teachers in this study were chosen by the school principals after the teachers indicated an interest in participating in a science program. The first-grade teachers in the experimental condition followed the HSSC Program, providing standards-based curriculum with learning activity boxes for life science, earth science, and physical science. In addition, these teachers received technical support in their classrooms from an implementation specialist on an average schedule of two times per month. During the fall of 1999, 14 first-grade teachers in the targeted schools were observed to determine the degree of implementation in their classrooms on the 12 critical dimensions of the Adaptive Learning Environments Program (ALEM) of the Community for Learning Comprehensive (CFL) School Reform Model developed by Wang (1992). Degree of implementation scores are reflected in percent form, referring to the number of dimensions met within each category. The 12 areas for degree of implementation are (1) arranging space and facilities, (2) creating and maintaining instructional materials, (3) establishing communication and refining rules and procedures, (4) coordinating and managing support services and extra personnel resources, (5) record keeping, (6) diagnostic testing, (7) prescribing, (8) monitoring and diagnosing, (9) interactive teaching, (10) instructing, (11) motivating, and (12) developing student self-responsibility. An average score for all 12 areas is referred to as the degree of implementation (DOI) composite. Results indicate that in the fall, the average DOI composite for the 4 experimental classroom teachers was 67.30, and the average DOI composite for the 10 control classroom teachers was 81.44. In the spring, following implementation of the HSSC Program, the average DOI composite for the experimental group increased to 87.50, whereas the control group DOI composite remained steady at 81.73.

Table 2

Results indicate that teachers from the experimental classes increased degree of program implementation by approximately 20%, whereas the control classroom teachers made negligible change. Although the teachers in the experimental classrooms started out lower in degree of implementation, they achieved higher scores by the end of the school year than the control classroom teachers for arranging space/facilities, establishing/communicating rules, coordinating/managing support, record keeping, diagnostic testing, prescribing, monitoring/diagnosing, interactive teaching, instructing, and motivating students. The final two assessed areas, creating/maintaining instructional materials and developing student self-responsibility, were similar in degree of implementation scores (less than one point difference) between the two groups by the end of the school year.

Program Gains

The areas that indicated a gain in DOI from fall to spring for teachers with experimental classes included arranging space and facilities (8%), creating and maintaining instructional materials (40%), establishing and communicating rules (20%), coordinating and managing support (30%), record keeping (50%), prescribing (40%), monitoring and diagnosing (25%), interactive teaching (30%), instructing (17%), motivating students (15%), and developing student's self-responsibility (4%). In the control classes, the following increases were noted: creating and maintaining instructional materials (4%), establishing and communicating rules (7%), record keeping (10%), prescribing (7%), monitoring and diagnosing (1%), interactive teaching (14%), and developing student's self-responsibility (6%). Experimental classrooms made superior gains when compared with control classrooms in 11 of 12 DOI areas assessed.

Curriculum-based Pre- and Post-test Results

The "Unit Pre-Post Tests for Life, Earth and Physical Sciences" (Hammrich & Klein, 2000) were administered to first-grade children in five classes to determine growth in content knowledge. There were two questions asked for each experiment prior to and following program instruction. The first question for each experiment, labeled "A," was factual, based on factual recall of information. The second question for each experiment, labeled "B," was application, based on students' explanations of information. For each question, students received a score of "0," indicating an incorrect response, or a score of "1," indicating a correct response. All pre-tests and post-tests were administered individually to students by the classroom teachers with the support of program staff during pre-test time. Table 3 provides a breakdown of scores for each type of question (A and B) for the 12 completed experiments.

Table 3

Results indicate that there was a significant difference between pre-test and post-test knowledge beyond the p < .05 level for all experiments tested. Students in the HSSC Program made significant gains in content knowledge at both factual and application levels.

Gender Differences

There were a total of 53 female first-graders and 45 male first-graders who took the pre-test. Students engaged in self-paced investigations to complete the five levels of each experiment following teacher demonstrations. Post-testing took place when the student completed the entire experiment. Figure 1 indicates that the girls generally scored lower than the boys at pre-test time. In fact, there were only two experiments (#6 - finding earth and #9 - moistening seeds) in which they scored higher than the boys initially. However, post-test results revealed that the girls matched the boys on factually based questions for 7 of the 12 completed experiments and surpassed the boys on one experiment (#10 - organizing rocks).

Figure 1. Factual pre- to post-test question means for girls and boys. The first dot within each numbered frame is the experiment pre-test mean score. The second dot within each numbered frame is the post-test mean score for that experiment.

Figure 2 compares girls and boys on application-type questions requiring higher-level reasoning and knowledge about science content. Girls scored lower than boys for half (6 of 12) of the experiments at pre-test time, considerably better than they performed on the "factual" questions reported in Figure 1. This result could lead one to believe that girls have a stronger ability to make associations and explain information than they do to recall science facts. This finding was recorded prior to any formal instruction with the HSSC Program. After instruction and exploration using the program, post-test results revealed that the girls matched the boys on "application" questions for 8 of the 12 completed experiments and surpassed the boys on one experiment (#1 - changing fish).

Figure 2. Application pre- to post-test question means for girls and boys.

Table 4 indicates that although the girls in the study scored slightly lower than the boys on both factual and application questions at pre-test time, their scores approximated the boys at post-test time with both girls and boys evidencing mastery of the material.

Summary of Head Start on Science and Communication Results

Results indicated that the HSSC Program had positive achievement effects for students who participated in the program. Overall, there was a significant difference between pre-test and post-test knowledge beyond the p < .05 level for all 12 completed experiments. Gains ranged from a low of 0.00 (an incorrect score) to a high of 1.00 (a correct score). Table 4 below reveals significant pre- and post-test changes beyond the p < .05 level of significance.

Table 4

Teachers reported improvement in their methods of instruction and classroom management after using the HSSC Program. Results indicated that in the fall, the average DOI composite for the four HSSC experimental classroom teachers was 67.30, and the average DOI composite for the 10 control classroom teachers was 81.44. In the spring, following the HSSC Program, the average DOI composite for the experimental group increased to 87.50, whereas the control group DOI composite remained steady at 81.73.

The HSSC Program significantly benefited teachers in (1) arranging space and facilities, (2) establishing communication and refining rules and procedures, (3) coordinating and managing support services and extra personnel resources, (4) record keeping, (5) diagnostic testing, (6) prescribing instructional material, (7) monitoring and diagnosing individual needs, (8) interactive teaching, (9) instructing, and (10) motivating students. Students benefited in their comprehension of language and level of knowledge acquired as evidenced by the gains they made when answering both factual and application types of science questions previously unknown.

Conclusion

Gaining knowledge about scientific processes and principles while increasing cognitive, linguistic, and literacy skills is a challenging and important task. Not all children learn in the same way, and they may not learn equally well using only one method. Often, we find that it is best to combine more than one teaching method to help children learn to their maximum potential. To motivate children to explore, understand, analyze, and create, teachers may want to combine both explicit, teacher-directed methods and exploratory, child-centered methods. In this way, students are given basic information from which to begin and to peak their curiosity for continued exploration. The Head Start on Science and Communication Program unites language development and science inquiry with a multifaceted curriculum to meet the needs of teachers and children within our diverse educational arena of the 21st century.

References

1- American Association for the Advancement of Science. (1993). Benchmarks for science literacy. New York: Oxford University Press. ED 399 180.

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3- Bell, Beverley, & Gilbert, John. (1996). Teacher development: A model from science education. London: Falmer Press. ED 395 763.

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Author Information

Evelyn Klein is assistant professor at LaSalle University within the Department of Speech-Language-Hearing Sciences. She is licensed as a speech-language pathologist and psychologist. Evelyn completed her post-doctoral training in the area of neuropsychology at Drexel University. Prior to her current position, she was the director of the Early Childhood Development and Evaluation Program at Temple University Center for Research in Human Development and Education where she lead the diagnostic evaluation team in assessing preschool-age children suspected of developmental delays. As a senior researcher at the Center, Evelyn co-developed the Head Start on Science and Communication Program and the Early Learning Program to enhance science, language development, reading and writing, and mathematics for young children. Evelyn was also principal investigator of a five-year federally funded dropout prevention program for early language and literacy development at the School District of Philadelphia. Her areas of expertise include assessment, speech and language development, and emergent literacy. She is on the board of directors of the International Dyslexia Association. Evelyn is coauthor of two books, Focus on Function and Focus on Transition, sold commercially through Pro-Ed, Inc.

Evelyn R. Klein, Ph.D., CCC/SLP

Assistant Professor, Speech-Language-Hearing Sciences

LaSalle University

1900 W. Olney Ave.

Wistar Hall

Philadelphia, PA 19141

Telephone: 215-951-1000 / 610-291-6447

Email: eklein6006@aol.com

Penny L. Hammrich is an associate professor of Science Education and a senior research associate at the Mid-Atlantic Laboratory for Student Success at Temple University. Within the capacity as an associate professor, she is the principal investigator/project director of three National Science Foundation grant programs: Sisters in Science, Daughters with Disabilities, and Sisters in Sport Science. As a senior research associate, she has co-developed the Head Start on Science and Communication Program. Penny has published over 30 manuscripts in refereed journals and presented over 80 research papers at national and international conferences. Her areas of expertise include science education, gender equity, constructivism, and the nature of science. Penny was awarded the TAKE THE LEAD 2000 award by the Girls Scouts of Pennsylvania for her work in helping young girls succeed in science and mathematics with her various grant programs over the past six years.

Penny L. Hammrich, Ph.D.

Associate Professor and Senior Research Associate

Temple University

1301 Cecil B. Moore Ave.

Ritter Hall 337

Philadelphia, PA 19122

Telephone: 215-204-1520

Email: phammric@thunder.ocis.temple.edu

Stefanie Bloom is a research assistant at the Mid-Atlantic Laboratory for Student Success at Temple University Center for Research in Human Development and Education. She graduated from George Washington University with a master's degree in education and human development. She is currently a doctoral student at Temple University majoring in curriculum, instruction, and technology. In her capacity as a research assistant, she has been instrumental in developing materials and training teachers to use the Early Learning Program, a curriculum-based program for classification/communication, early reading and writing, and quantification.

Stefanie Bloom

Research Assistant, Laboratory for Student Success

Temple University

Center for Research in Human Development and Education

1301 Cecil B. Moore Ave.

Ritter Annex, 9th Floor

Philadelphia, PA 19122

Telephone: 215-204-6863

Email: stefaniebloom@hotmail.com

Anika Ragins is a research assistant at the Mid-Atlantic Laboratory for Student Success at Temple University Center for Research in Human Development and Education. She graduated from Rutgers University and is currently a graduate student at Temple University majoring in elementary education. In her capacity as a research assistant, she has been instrumental in developing materials and training teachers to use science explorations in the classroom.

Anika Ragins

Research Assistant, Laboratory for Student Success

Temple University

Center for Research in Human Development and Education

1301 Cecil B. Moore Ave.

Ritter Annex, 9th Floor

Philadelphia, PA 19122

Telephone: 267-235-5284 / 215-204-3010

Email: ragins@hotmail.com

Appendix

Science Activity Index

The following index lists the activities and a brief description of the major concepts covered. Activities are grouped by life, earth, and physical sciences.

Life Science

Listening Inside: Things that make sounds vibrate.

Guessing Boxes: Using your senses, you can describe physical properties of different objects.

Coloring Celery: Water can be absorbed.

Pouring Shapes: You can change some materials' properties, but not all materials respond the same way.

Melting Materials: Water can change back and forth from a liquid to a solid and from a liquid to a gas.

Feeling Water: Using your senses, you can feel temperature for variations from hot to cold.

Evaporating Liquids: Water and moisture can disappear if left in an open container.

Changing Fish: Animals have external features that help them adapt and survive.

Ordering Nuts: You can describe and organize objects by their physical properties.

Sensing It: You can use your senses to identify properties of objects.

Physical Science

Bouncing High: You can vary movement of something by force.

Falling Objects: You can change the position of something by pushing it.

Sticking Objects: Magnets can make some materials move.

Spilling Over: Things can be done to change a material's properties.

Bubbling Air: Most living things need air.

Floating Food: Some objects can float, while other objects sink.

Creating Pitch: Sounds can be low or high in pitch.

Coloring Line: You can change colors by adding other colors to them.

Measuring Sound: You can use your senses to hear different sounds.

Moving Hands: You can create heat from friction.

Earth Science

Finding Earth: Different surfaces have different textures.

Making Plants: Plants are comprised of various parts that have different functions.

Blowing Across: Force of air can make objects move various distances.

Organizing Rocks: Rocks come in different sizes, shapes, textures, and colors.

Moistening Seeds: Plants need water and light to grow.

Running Liquids: Physical properties can be changed.

Growing Seeds: Plants share similarities and differences in features and growth.

Sinking Boats: Buoyancy and weight are factors in flotation.

Gathering Nature: Materials in nature have similarities and differences.

Observing Objects: Some objects' physical properties can be changed and others cannot.

Volume 2 Number 1

©The Author(s) 2000

Comparisons in Early Years Education: History, Fact, and Fiction

Mary Jane Drummond

School of Education

University of Cambridge, U.K.

Abstract

This article discusses three schools and considers what lessons modern educators might learn from them. The first school described is the Malting House school, where Susan Isaacs taught for several years. The Malting House school, which existed from 1924 to 1929 in Cambridge, England, teaches the lesson of looking, with attention, at everything that children do. The second school discussed is a present-day primary classroom in Hertfordshire, England, where the teaching methods of Annabelle Dixon are described. This classroom demonstrates the relationship between an educator’s core values and her pedagogical practices. The third school discussed is Louisa May Alcott’s fictional school, Plumfield. The lesson learned from this school is the importance of the imagination, which teaches us to aspire to a more just and harmonious society.

Introduction

In this paper, I examine three very different schools and classrooms, and I consider what lessons we might learn from them, in terms of enriching our professional thinking. First, I describe a school that is no longer functioning, but for which we have abundant documentation. The lesson from this recent piece of educational history concerns, I suggest, the prime responsibility of educators to learn from the children they teach. The second school represents fact, the present day; I attempt to show how this classroom exemplifies the relationship between understanding and purpose, a lesson in educational values and their steadfast application. The third school is fictional; it is a school where we can, if we choose, learn about the power of the imagination, the power by which we can see into the lives of children and reflect on what might constitute the good life for them, in the Aristotelian sense of the life that is worthy of being lived.

School One

The first school of the three is the Malting House school, in Cambridge, England, founded by the wealthy eccentric Englishman Geoffrey Pyke, whose only son, David, was born in 1921. For this child, his father intended a childhood and an education free of trauma, based on self-discovery and scientific enquiry. To this end, he instigated an experiment in education, not knowing where it would lead. As a first step along the way, in the spring of 1924, he placed this advertisement in a number of journals, including the New Statesman and Nature:

WANTED - an Educated Young Woman with honours degree - preferably first class - or the equivalent, to conduct education of a small group of children aged 2-1/2–7, as a piece of scientific work and research.

Previous educational experience is not considered a bar, but the advertisers hope to get in touch with a university graduate - or someone of equivalent intellectual standing - who has hitherto considered themselves too good for teaching and who has probably already engaged in another occupation.

A LIBERAL SALARY - liberal as compared with research work or teaching - will be paid to a suitable applicant who will live out, have fixed hours and opportunities for a pleasant independent existence. An assistant will be provided if the work increases.

They wish to obtain the services of someone with certain personal qualifications for the work and a scientific attitude of mind towards it. Hence a training in any of the natural sciences is a distinct advantage.

Preference will be given to those who do not hold any form of religious belief but this is not by itself considered to be a substitute for other qualifications. (Gardner, 1969, p. 54)

As we all know, the advertisement was answered by Susan Isaacs, who went on to open the Malting House school in a spacious house beside the river Cam, in the center of Cambridge, in the autumn of 1924. Isaacs remained there until the end of 1927, when she returned to London. In the first term, there was a group of 10 boys, ranging in age from 2 years 8 months to 4 years 10 months. In 1926–1927, the age range was 3 years to 10 years 5 months, and in the last term covered by Isaacs’ own records, there were 20 children in the group, ranging in age from 2 years 7 months to 8 years 6 months. Isaacs’ only biographer, Dorothy Gardner (an ex-student and devoted friend of Isaacs), is less than forthcoming about the reasons for Isaacs’ departure from the school in 1927, but it was almost certainly due to Pyke’s becoming more eccentric, more interfering, and a good deal less wealthy. A terrible crash in the futures of the copper market in the autumn was clearly one of the precipitating factors in Isaacs’ move; Pyke’s fortunes did not immediately improve, and the school finally closed at the end of 1929 (Gardner, 1969; van der Eyken & Turner, 1969).

Back in London with her second husband, Nathan Isaacs, who had himself briefly worked at the Malting House school, there was plenty of work for Susan Isaacs to do. In the first 2 years of the school’s existence, she had amassed a vast quantity of anecdotal records of the children’s activities, noted down by Isaacs and her assistants. One of her assistants, Evelyn Lawrence, later became director of the National Froebel Foundation (Note 1) and, after Susan’s death in 1948, Nathan’s second wife. These notes are the basis for the two substantial volumes in which Isaacs documented the work of the Malting House school: Intellectual Growth in Young Children, first published in 1930, and Social Development of Young Children, which appeared in 1933. Impressively bulky and detailed as these works are, their lasting importance and interest derive in part from the conditions under which the material was collected. Isaacs’ own shorthand description (Isaacs, 1930, p. ix) is that the conditions were "relatively free," but this phrase does nothing to convey the extraordinary qualities of this extraordinary school. We need to look more closely.

The conditions of relative freedom took the form of, first, "an all-round lessening of the degree of inhibition of children’s impulses" compared to other schools or family groups (Isaacs, 1930, p. 12). Some practical considerations, particularly for the children’s safety, did set a number of limits on their behavior. But by today’s standards, there were very few limits, and by today’s sensitivities, the limits were set in the most unlikely places. For example, in the garden at the Malting House school were several garden sheds, one of which had a most enticing and accessible sloping roof. The rule was not, no climbing, but a much more daring and child-friendly one: only one child on the roof at a time (implicitly an invitation to climb!). By contrast, there was virtually no constraint on the children’s verbal expression, their intellectual impulses, their expressions of infantile sexuality, their anal and urethral interests, their feelings (including anger and aggression), their views on everything that happened around them, and their questions.

The outcome of this relative freedom of expression was, as Isaacs claims and as generations of excited readers have discovered for themselves, a "greater dramatic vividness of their social and imaginative and intellectual life as a whole" (Isaacs, 1930, p. 12). Apart from anything else, in comparison with the primary classrooms where I have taught in the past and regularly observe today, there was no time wasted in the business of forming into lines, waiting in lines, completing the registers, (Note 2) collecting lunch money, searching for PE equipment - all the events that add up to evaporated time in Campbell’s vivid phrase (Campbell & Neill, 1994, p. 23). All the available time was available for the children, not for the teachers’ routines; it was filled with the children’s dramatic, vivid lives. Writing in 1927, Evelyn Lawrence described the difference between Malting House children and children at other schools, where they are forced "to wear a mask of seemliness and respectability" (Gardner, 1969, p. 65). Whereas, of the Malting House school, she wrote: "Here the children’s crudities, the disorder of their emotions, their savagery even, are allowed to show. Fights and squabbles often occur" (in Gardner, 1969, p. 65). After such a description of children without masks, it is quite a surprise to find a photograph, in van der Eyken’s essay on the school, of a cluster of perfectly normal looking children, sitting on the grass - although the caption tries to strike an alarmist note: "Some children have taken their shoes off, others have kept them on. There were few rules" (van der Eyken & Turner, 1969).

The second aspect of the "relatively free" conditions that is worth noting is the combination of the physical environment and the way in which the adult educators responded to the children’s impulses and initiatives. These two elements of the curriculum, taken together, led the children to be more active, more curious, more creative, more exploratory, and more inventive than they could have been in any ordinary school. The children passed their days moving freely between a large hall, plentifully equipped, with a gallery and a piano, four small rooms (one used largely as a science laboratory), and a large garden with animals, including, at different times, mice, rabbits, guinea-pigs, two cats and a dog, hen and chickens, snakes and salamanders, silkworms, a wormery, and a fresh water aquarium. There were two lawns, abundant fruit trees, real bricks for building, space for bonfires, a seesaw with hooks so that weights could be fitted underneath, and much more. Indoors, the provision was no less stimulating: small movable pulleys, which could be screwed in where desired; a full-sized lathe and woodworking equipment; Bunsen burners, with all the necessary trimmings of tripods, gauzes, flasks, and test tubes; modeling materials, textiles, paint, and writing materials; cupboards full of Montessori equipment; microscopes; and dissecting instruments. Given all this, Isaacs’ claim that "there was more for us to see, and we could see it more plainly" (Isaacs, 1930, p. 12) seems a calculated understatement, almost designed to provoke.

Provoking some of the children’s activities undoubtedly were, as we shall shortly see. But first, I want to emphasize the uses to which Isaacs puts her rich observational material. She did not collect an inert mass of data, nor publish her observations for them to sit tamely on the page. The data have been set to work to construct a coherent account of the development of children’s intellectual and emotional powers. In the 1930 book, Isaacs describes their powers of discovery, reason, and thought; in the 1933 sequel, she gives a comprehensive account of their social relations: their hostility and aggression, as well as their friendliness and cooperation, their love and hate, their guilt and shame, and their capacity for compassion and reparation. Every accumulating inch of descriptive text plays its part as evidence for the conceptual framework of learning and development that Isaacs constructs and consolidates. In these two volumes, what she and her colleagues saw, so vividly and plainly, is transformed into a geography of learning, as she charts the children’s explorations of both their inner and outer worlds.

For this enterprise, Isaacs was supremely well qualified - not just because of the material in her possession, and the time she devoted to it, but also because of her own intellectual and emotional biography. It is worth pausing here for a brief summary of her life story. Pulled out of school at the age of 15 by her father because she had confessed to becoming agnostic, she stayed at home with her stepmother (her father refusing to speak to her for 2 years) until she was 22. In 1907, she enrolled to train as a teacher of young children (5- to 7-year-olds) at the University of Manchester, where the course was led by Grace Owen. She soon transferred to a degree program and graduated in 1912 with a First class degree in philosophy. She was promptly awarded a graduate scholarship at the psychology department at the University of Cambridge and emerged with a master's degree in 1913. Isaacs then embarked on a series of lectureships - in infant school education at Darlington Training College, in logic at the University of Manchester, and in psychology at the University of London. More important, as I shall argue later, is that around 1920 she started her first psychoanalysis, and in 1922, she started her second. In the same year, she started medical training in order to practice as a medical psychoanalyst, but she did not proceed to work on the wards. She began her own practice in psychoanalysis in 1923, a year before she took up the post at the Malting House school.

So Isaacs was in no way a conventional infant school teacher. She was also a philosopher, a psychologist, and a practicing psychoanalyst. All of these perspectives contribute to the richness of what she saw and the strength and depth of her understanding. In a revealing paper given in 1938 to the Education Section of the British Psychological Society, with the title "Recent Advances in the Psychology of Young Children," Isaacs argues that psychoanalytic research is especially important in the study of children, because it is concerned above all with "the meaning of the child’s experiences to himself " (Isaacs, 1948, p. 84, Isaacs’ italics).

It is interesting that in the period 1927–1930, Isaacs originally intended to write one book about children, not two, because she thought the same data threw light on both intellectual and emotional development. It was with regret that she abandoned this plan and separated intellectual growth and social development. In The Children We Teach (1932), a much shorter book, she reintegrates these two domains, emphasizing the interconnectedness of affect and cognition: "The thirst for understanding springs from the child’s deepest emotional needs, a veritable passion" (Isaacs, 1932, p. 113). This powerful insight is constantly emphasized by Gardner (1969) who writes: "no-one who studied with her [as Gardner had done] would be tempted to forget that children cannot be really emotionally satisfied unless they can also learn, nor really learn unless their emotional needs are met" (p. 149).

In my work as an inservice educator with early childhood practitioners, on short courses and at diploma and master's levels, I frequently use examples and extracts from Isaacs’ work, attempting to demonstrate how much there is to learn from the Malting House school. But the extracts I select do not always have a very warm reception. I have long abandoned attempts to convince contemporary early years practitioners that Bunsen burners should have a place in their provisions, but I am still surprised by the frequently noisy and hostile responses evoked by passages such as the following:

18.6.25. The children let the rabbit out to run about the garden for the first time, to their great delight. They followed him about, stroked him, and talked about his fur, his shape, and his ways.

13.7.25. Some of the children called out that the rabbit was ill and dying. They found it in the summer house, hardly able to move. They were very sorry, and talked much about it. They shut it up in the hutch and gave it warm milk. Throughout the morning they kept looking at it; they thought it was getting better, and said it was "not dying today."

14.7.25. The rabbit had died in the night. Dan found it and said, "It’s dead - its tummy does not move up and down now." Paul said, "My daddy says that if we put it into water, it will get alive again." Mrs. I. said, "Shall we do so and see?" They put it into a bath of water. Some of them said, "It is alive." Duncan said, "If it floats, it’s dead, and if it sinks, it’s alive." It floated on the surface. One of them said, "It’s alive because it’s moving." This was a circular movement, due to the currents in the water. Mrs. I. therefore put in a small stick which also moved round and round, and they agreed that the stick was not alive. They then suggested that they should bury the rabbit, and all helped to dig a hole and bury it.

15.7.25. Frank and Duncan talked of digging the rabbit up - but Frank said, "It’s not there - it’s gone up to the sky." They began to dig, but tired of it, and ran off to something else. Later they came back, and dug again. Duncan, however, said, "Don’t bother - it’s gone up in the sky," and gave up digging. Mrs. I. therefore said, "Shall we see if it’s there?" and also dug. They found the rabbit, and were very interested to see it still there. Duncan said, "Shall we cut its head off?" They re-buried it. (Isaacs, 1930, pp. 182-183)

But the educators’ resistance to the idea of children digging up a dead rabbit is as nothing compared to their comments on passages that describe Isaacs and the children doing what she called "looking inside" dead animals:

14.6.26. During the week-end, the cat had knocked over a cage of mice, and the "daddy mouse" was dead. The children looked at it, and spoke of its teeth, tail and fur. Mrs. I. then said, "Should we look inside it?" They agreed eagerly, and she dissected it in a bath of formalin. Dan, Jessica, Christopher and Priscilla watched with eager and sustained interest. They shuddered when the knife cut into the skin, but comforted themselves with the thought that it was dead. They saw the guts, kidneys, liver, heart, ribs, backbone, airpipe, foodpipe and stomach, brain, inside of eye, inside of mouth, and tongue. Christopher asked to see "the thinking part." They asked Mrs. I. to cut open the gut to show the faeces. Later, the children spent some time watching the silkworms and caterpillars, and feeding the rabbit. (Isaacs, 1930, p. 185)

Little do the educators know, as the discussion rages around the group, that there are, concealed in my teaching file, other extracts that would fan the flames yet higher:

26.1.26. Mrs. I. found that Dan and Priscilla had cut a worm into pieces with a saw. They spoke of the blood and "inside."

18.2.26. The children went into the garden. Priscilla wanted to pull a worm into halves, and said she would marry the boy who did. They all said they wanted to marry her. Dan eventually did pull the worm in halves. Frank then pulled the rest of it apart; they were very excited about this. (It should be noted how few instances of actual cruelty are recorded against Priscilla.) (Isaacs, 1930, p. 205)

I do not often venture to use this last extract: I cannot commend it as useful teaching material. But I remain interested in why today’s practitioners respond so violently to material that dramatically illustrates important aspects of children’s lives, in particular, the ways in which "the desire to master and hurt," in Isaacs’ words (Isaacs, 1930, p. 164), co-exists with "the impulse to cherish," and the problem this contradiction poses to parents and educators who want "to make a positive educational use" of both these impulses. To a certain extent, Isaacs herself anticipated some of these difficulties. In the section of Intellectual Growth in Young Children where she discusses children’s biological interests, she writes a superb exposé of the inconsistencies of contemporary adult thinking about appropriate behavior to animals. She demonstrates the contradictions in adult injunctions to be kind to all animals - except wasps, slugs, mosquitoes, and foxes. And although children must be kind to cats, they must not imitate what cats do to mice or baby birds. Isaacs identifies a variety of confusions, which are still with us, in the cultural constructs with which we do our everyday biological thinking - confusions well worth reflecting on by educators interested in the growth of children’s key ideas in the biological domain.

Another difficulty for educators today may reside in the emotional domain. It is possibly - more or less - painful to be expected to tolerate children’s expressions of emotions, such as cruelty, rage, and hatred, which, as adults, and particularly perhaps as early childhood educators, we have long learned to stifle and repress. Wearing masks ourselves (of perpetual good humor and an encouraging smile), we may well be alarmed by children without masks, speaking and acting from the heart.

But the core of the matter is surely that all educators (and I include myself) prefer to focus on those characteristics of children that match our educational aspirations, our aims and ambitions, our pedagogical purposes. We select for our attention those aspects of children, indeed of childhood, that fit our finest hopes and dreams, whereas Susan Isaacs did no such thing. When she was preparing Social Development in Young Children, she was advised to omit much of her material, because it was considered too shocking and likely to offend. But Isaacs took no notice. "I was not prepared to select only such behaviour as pleased me, or as fitted into the general convention as to what little children should feel and talk about" (Isaacs, 1930, p. 19). So, for example, on November 21, 1924, Isaacs notes that Harry, not quite 5, follows her to the lavatory, peering through the frosted glass and shouting with glee: "I can see her! I can see her combinations!" (Isaacs, 1933, p. 140). Isaacs’ comment on this and many other such incidents (some, doubtless, likely to cause offence in an academic paper) is compellingly blunt: "I was just as ready to record and to study the less attractive aspects of their behaviour as the more pleasing, whatever my aims and preferences as their educator might be" (Isaacs, 1933, p. 19).

Isaacs is equally blunt in explaining her position: "The first reason is that I myself happen to be interested in everything that little children do and feel" (Isaacs, 1933, p. 113).This uncompromising position is one of the reasons why Isaacs’ thought remains so invigorating today. By being interested in everything, she developed a prodigious capacity to follow the growth of children’s thinking and feeling, even when they went in unexpected and undesirable directions. Isaacs was simply not interested in the extent to which children’s thought mirrored her own or the extent to which they made their faces fit the conventions of an arbitrary adult society. To see children as Isaacs saw them is to see them whole, vividly and dramatically, with all their strengths and weaknesses intact. The Malting House school teaches us the lesson of looking, with attention, at everything that children do (and think and feel) as they live and learn in our benevolent provisions for them.

School Two

The second school to be presented is of the present day - a small primary school in Hertfordshire, in an area of extreme economic and social disadvantage, within sight and sound of the M25, the congested beltway that circles London. The teacher whose work I will describe, Annabelle Dixon, is now a research associate at the School of Education, in the University of Cambridge, England. Until September 1997, however, she was deputy-head and classroom teacher, and I have had the privilege of observing her work and her class of children on many occasions over the last few years. (Note 3)

During the academic year 1996–1997, when the observations I will draw on below took place, there were between 17 and 20 children in the mixed-age class (from 4 to 7 years old). Many of these children came to school without having had any breakfast, which explains why, when the hatch in the dining hall flew open at 10:30 before the mid-morning break, there was a long queue of children in place to buy slices of freshly buttered toast at a modest price. One of my abiding memories of this classroom is of the children wandering back to the cloakroom, toast in hand, collecting their coats, sometimes losing their toast en route. In trying to bring this classroom vividly before your eyes, I do not intend to trivialize what I have seen there, but to demonstrate that this classroom is a most exceptionally educative environment - a place, above all, of genuine intellectual search.

For example, pinned on the notice board behind a huge, comfortable, embracing sofa is a "New Words" list. Annabelle explains that on this list she and the children record words that the children have not met before. They are encouraged to mark these occasions, to interrupt the discussion or the story to ask for explanations and definitions, and to record the word in question on the list. On one visit, the list read thus:

amaryllis toffee-nose

ferocious energy

anxious cauldron

transparent nocturnal

gasp series

These are not dead words, such as are found on many classroom walls, unread, unremarked, unremarkable. These words enter the children’s thinking and expand their understanding; even the youngest 4-year-olds are caught up in this process. For example, during story time, a child notices that on the back of the book his teacher is holding up there is a list of books by the same author. Delighted, he calls out: "Miss, that’s a series there, on the back of the book." Another day, at tidying up time, a child calls from the book corner: "Miss, we’re tidying up the series!" One child confided to Annabelle: "Everything’s a series really." When invited to say more, he obliged with a variety of examples - his family (his brothers and sisters, in order of age), the days of the week, the times on the clock, and so on.

On another visit, I recorded another list including the words:

oval bouquet

environment identical

S.O.S impatient

cuboid saint

nervous calf

On this same visit, my notebook records that Annabelle told me that, in the previous term, the fathers of 4 of the 17 children in the class were serving prison sentences. As I digested this information and copied down the New Words list, I thought of the alarming finding of Tizard and Hughes (1984), in their small-scale nursery school study, that the teachers asked lower-level questions of the children in the working-class sample than of those in the middle-class sample. The comparison is a telling one: there is little that is low level in this classroom. Incidentally, I had already noticed that Annabelle asks fewer questions than many teachers I have observed, although she did tell me about this exchange:

AD: Where does a river start?

Child: "r."

(Her comment to me: "34 years in the classroom and I’m still asking silly questions.")

The children ask good questions though, and follow them through in a search for understanding. For example, Adrian (5 years 2 months) said to Annabelle: "I think I’ve found something out (demonstrating with the binoculars he has been examining). There’s two bits here (points) and two bits here (the eyepieces) and when you look, you only see one picture!"

Many of the children’s questions are recorded in a class book, for future reflection and discussion. (For example: "Do cats have to chase mice in real life?" "Why do letters have names as well as sounds?") There are also individual investigations, fired by individual thinkers. I observed Ricky (age 5) collecting his maths book and settling down to write on a page already crammed with numbers:

AD: Ricky, do you want to carry on?

R: Yeah.

AD: Really? Are you sure?

R: Yeah.

AD: (to me) This is the fifth day. He’s discovering even numbers.

(His book shows he has reached 748.)

Liam (6 years 2 months), who has different concerns, is working on a different project. The old bulgy and commodious sofa has been replaced by a new one, which is undoubtedly smarter and cleaner, but which only seats three children at a time. Liam is worried that some children are enjoying more than their fair share of this new privilege, so he has collected a printed copy of the class list ("one of my most useful resources," claims Annabelle) and a clipboard and is keeping a tally of who sits on the sofa and how often. His writing is stiff with inaccuracies, if seen in terms of letter formation, capital letters, or punctuation marks, but it is nonetheless effective in his personal project - social justice.

On the notice board next to the New Words list is a quotation from Wittgenstein (himself for a while an elementary teacher, in the 1920s, in small village schools up in the mountains south of Vienna): "The limits of my language are the limits of my mind." (Note 4) Annabelle’s response to this apothegm is to structure much of her teaching around what she calls "tool-words." The first of these words to become important in her pedagogy was "problem," when she realized, some years ago, that without this word in their working vocabularies, children did not appreciate what was happening to them when they met a problem. She reasoned that if they could understand what kind of an experience a problem was, they would more readily deploy their intellectual and emotional energies in finding ways of solving it. And so it proved. Once her pupils had grasped that a problem (a disagreement with a friend, a technical difficulty in a construction project with the blocks, a puzzling observation of the natural world) could be understood as a challenge to their inventiveness and ingenuity, indeed could be relished, explored, and finally resolved, they were much less likely to walk away from problems, to abandon their projects, or to refer their disputes to adult authority.

Building on this discovery, and the children’s appetite for more, Annabelle has developed a list of essential "tool-words" for children’s thinking, which includes the cluster of concepts identical, similar, and different; the verbs compare, remember, comment, and question; and the nouns imagination, team, and mystery. During one of my visits, Annabelle showed me the work the class had been doing on the school’s behavior policy document, which had recently been written in consultation with the older pupils, ages 8 to 11. Annabelle’s response to the policy was to ensure that the key words used in the document could be understood by her much younger children: she accomplished this goal by building up working definitions of words, such as respect, drawn from the children’s lives. A large sheet of paper recorded this work in progress:

"Keeping secrets from people isn’t respectful."

"Swearing at people isn’t respectful."

Annabelle overheard a child swearing quietly to himself one day, while searching his tray for a missing treasure. When he saw her, he stopped, with a guilty flush, but not because his teacher had heard him. "That’s not respecting myself, is it?" he explained. My own notebook records Stephen (age 6) complaining to the whole class, gathered for a discussion, "People have been talking about my cold sore. That wasn’t respectful."

In this classroom, respect is a key theme: respect for children’s powers, for their emotional and intellectual energy. In Annabelle’s teaching, this respect translates into a willingness to follow what she calls "the grain of their thinking," rather than trying to "teach against the grain." It is transparently clear, from minute to minute in this classroom, that there is a direct relationship between the lived curriculum, the first-hand experiences of these young learners, and the values of the educator who provides and organizes their experiences. It is the children’s strengths that are valued, not their weaknesses. Their powers to do, to think, to feel, to understand, to represent, and to express are given space and time to grow. The curriculum that these children and their teacher construct together offers them both nourishing food and challenging exercise; the quality of the children’s learning reflects their teacher’s faith in their limitless potential to learn.

In presenting this brief description of one particular classroom in one particular school, I want to exemplify a much more general theme and suggest that what can be learned from such a classroom (and I have no doubt there are others like it, perhaps not identical, but similar) is the close and necessary relationship between values and classroom practice, between values and schooling, between values and the whole enterprise of education.

In my work as external evaluator for a number of local education authorities over the last 10 years, I have, inevitably, started from my own perspective as a value-infested educator, but I do not believe this perspective prevents me from trying to understand the values as well as the practices of other educators, those whom I am observing and whose effectiveness I have been charged with evaluating. In one such project, the Hampshire program of one-term entry to primary school (Drummond, 1995), I drew particular attention to one aspect of the findings from 200 hours of observation in 50 selected schools:

The evidence suggests that in those classrooms where expectations of the children were high, the quality of learning was also high. When the activities made demands on children’s powers to think, to solve problems, to imagine, to create, to build, to express themselves and to organise their work, the children responded actively and with enthusiasm. When the programme required the children to sit and listen for long periods of time, to follow instructions, to produce prescribed outcomes, the children met these expectations, certainly. But opportunities were lost for richer and more rewarding learning. (Drummond, 1995, p. 53)

This comparison, not unexpected but nonetheless important, has something to say about the need for high - but realistic - demands on children’s intellectual and social powers. But I am suggesting here that the comparison has more than one lesson to teach. It also underlines the seriousness of our collective professional responsibility to make wise choices in the priorities that our classroom practices enact and embody. Which capacities of children do educators, and the educators of educators, really value? Do we, as a professional community, value young children most highly as independent, creative freethinkers or as people who keep silent when they have plenty to say, who walk when they would choose to run, and who sit up straight, with alacrity, whenever we ask them to? There are choices to be made in this domain, choices that are made every day in classrooms, corridors, assembly halls, and lecture theaters. They are choices worth examining, which is my justification for having taken this space to describe, however selectively, one classroom, one set of values, one set of practices.

School Three

As my article title suggests, the third school is a fictional one, although the selection of just one school in this category has been extremely difficult. It was with great regret that I abandoned the project of exposing the schools and schoolrooms where Ivy Compton-Burnett’s fictional (and autobiographical) children are educated. (Note 5) Another possibility, grudgingly relinquished, was an exploration of the work of the contemporary writer Anne Fine (1993, 1994, 1996), a critical communicator on the sociological structures of schooling thoroughly in the W. A. L. Blyth tradition (see, for example, How to Write Really Badly, Flour Babies, and The Angel of Nitshill Road). There is a fascinating school in B. F. Skinner’s (1962) utopian fantasy Walden Two, where the students are never graded and are not taught traditional subjects at all, only the generic skills of learning and thinking. Hardest of all to set aside was the school described by the great Polish educator Janusz Korczak (1992) in When I Am Little Again, a moving interpretation of a few days of classroom life as seen through the eyes of a child, the author himself, grown "little again."

The fictional school that I finally selected is Plumfield, which draws its inspiration from a real-life school, as of course all fictional schools do to some extent (except in William Morris’s (1901) utopian novel, News from Nowhere, where there are no schools). Plumfield is the creation of Louisa May Alcott (1832–1888). It first appears in the second half of the double volume of Little Women and Good Wives (1868), at the very end of Good Wives; it is the central theme of Little Men (1871) and is still a successful school in the background of Jo’s Boys (1886). The real-life school from which some of Plumfield’s practices are drawn is the Temple School, a short-lived experiment in progressive education, founded and directed by Alcott’s father Bronson Alcott, writer, transcendentalist, and friend of Emerson, Thoreau, Hawthorne, and the amazing Peabody sisters.

The Temple School was not Bronson’s first school, but it was undoubtedly the most visited and the most notorious. Bronson Alcott began teaching in 1825 in Cheshire, Connecticut, in a school regarded as alarmingly progressive, which lasted only 2 years. The school found some admirers in Boston, however, where, in 1834, after further failures in Philadelphia, Bronson opened the Temple School with 18 pupils, boys and girls between 5 and 10 years old. The walls were decorated with busts of Plato, Jesus, Socrates, Milton, and Shakespeare. Bronson modeled himself on both Jesus and Socrates, and his pedagogical approach was a combination of parable, sermon, and Socratic dialogue. His daily, hour-long conversations with the pupils were faithfully transcribed, as they took place, by Elizabeth Peabody and later by her sister Sophia (wife of Hawthorne). The first year’s work was published in 1835 as the Record of a School (Peabody, 1835). One brief extract will give a flavor of these unique proceedings:

Alcott: Which was first in time, an acorn or an oak?

Child: Sometimes one is first, and sometimes the other. In the woods, oaks grow up wild; and you can plant acorns and have oaks.

Another child: I think God made oaks first, and all the other oaks there have ever been, came from the acorns of those first oaks.

Alcott: Does light prove darkness or darkness light?

Several: Each proves the other.

Alcott: Can nothing prove something?

All: No.

Child: I think darkness is something.

Alcott: Is darkness anything to your senses?

Child: No; it only seems so.

Alcott: What does it seem to be?

Child: It is the shadow of the light. (Bedell, 1980, p. 111)

The school prospered, and visitors flocked to listen and admire. However, when Bronson widened the scope of these conversations to include such topics as marriage, love, birth, and circumcision, the tide turned. A second volume of transcribed dialogues, Conversations with Children on the Gospels (A. B. Alcott, 1837), proved his downfall. This volume, according to the Boston Courier, was "a more indecent and obscene book (we can say nothing of its absurdity) than any other we ever saw exposed for sale on a bookseller’s counter" (Saxton, 1977, p. 92). By the spring of 1837, the experiment was over, precipitated by the admission of a black child, Susan Robinson. This act of principle, by a convinced and passionate abolitionist, caused the parents of his few remaining students to withdraw their children.

Louisa May Alcott was born in 1832 and celebrated her third birthday party at the Temple School, wearing a crown of flowers and distributing cakes to the students. She and her three sisters, later to be known by generations of young readers as the four March girls (their mother’s maiden name was May) were all educated at home by Bronson and so were intimately acquainted with Bronson’s unconventional educational methods, which we find, 35 years on, transformed into the fictional Plumfield, most fully described in Little Men. Plumfield is an integrated, coeducational, inclusive boarding school, managed by the wild tomboy Jo March in her new role as the compassionate and motherly Mrs. Bhaer, wife of the German immigrant Professor Bhaer: "a happy, homelike place," Jo calls the school, at the end of Good Wives.

Little Men is unusual in Alcott’s oeuvre in having next to nothing by way of a plot: the center of interest is the children and their daily lives. Plumfield’s children, like the children at the Malting House school, are recorded in their totality, children as they really are - unique individuals who are at times, and by turns, mischievous, timid, sickly, spoiled, lazy, grouchy, courageous, teasing, compassionate, and - all of them - thoroughly loveable.

The following extract will introduce the school to those whose own childhoods were not infected with Alcott’s imaginative powers. It is taken from the first chapter and reveals how the Plumfield experience bursts upon a new boy, Nat, who arrives late on a Saturday evening. Safely tucked up in bed, after a luxurious bath and a hot sweet drink, Nat is startled by

the sudden appearance of pillows flying in all directions, hurled by white goblins who came rioting out of their beds. The battle raged in several rooms, all down the upper hall, and even surged at intervals into the nursery, when some hard-pressed warrior took refuge there. No one seemed to mind this explosion in the least; no one forbade it, or even looked surprised. Nursey went on hanging up towels, and Mrs. Bhaer looked out clean clothes, as calmly as if the most perfect order reigned. Nay, she even chased one daring boy out of the room, and fired after him the pillow he had slyly thrown at her.

"Won’t they hurt ‘em?" asked Nat, who lay laughing with all his might.

"Oh, dear, no! We always allow one pillow-fight Saturday night. The cases are changed to-morrow; and it gets up a glow after the boys’ baths; so I rather like it myself," said Mrs. Bhaer, busy again among her dozen pairs of socks.

"What a very nice school this is!" observed Nat, in a burst of admiration.

"It's an odd one," laughed Mrs. Bhaer; "but you see we don’t believe in making children miserable by too many rules, and too much study. I forbade night-gown parties at first; but, bless you, it was of no use. I could no more keep those boys in their beds than so many jacks in the box. So I made an agreement with them: I was to allow a fifteen-minute pillow fight, every Saturday night; and they promised to go properly to bed, every other night. I tried it, and it worked well. If they don’t keep their work, no frolic; if they do, I just turn the glasses round, put the lamps in safe places, and let them rampage as much as they like."

"It's a beautiful plan," said Nat, feeling that he should like to join in the fray, but not venturing to propose it the first night. So he lay enjoying the spectacle, which certainly was a lively one . . A few slight accidents occurred, but nobody minded, and gave and took sounding thwacks with perfect good humour, while pillows flew like big snowflakes, till Mrs. Bhaer looked at her watch, and called out:

"Time is up, boys. Into bed, every man Jack, or pay the forfeit!"

But not all the children’s frolics are so innocent and lighthearted. Under the influence of Dan, one of the most challenging of Jo’s little men, the boys learn to swear, to smoke, to drink, and to play cards. The downward spiral seems inexorable, until Tommy Bangs sets his bed on fire and they are all rescued and set on a straighter path once more. The boys (the girl pupils arrive later) spend extraordinarily little time in the schoolroom; far more important in their lives are the garden, the orchard, their dens, the trees they climb, their band, their story-telling, their menagerie, their museum, and the stream they regularly fall into. Through her descriptions of life at Plumfield, Alcott offers a perspective on curriculum that is at least as progressive as her father’s. Essentially, it is a curriculum of relationships, constructed within a harmonious vision of what society might be - loving and inclusive, where children’s growth and well-being, in the most comprehensive senses of those words, are central values.

Professor Bhaer teaches the children German, Greek, Latin, and Algebra, but Jo teaches what she knows: "lessons more important than any taught in school" - and yet it is a school in which she teaches these things. (Note 6) She teaches her little men to care for one another; she teaches them "honesty, courage, industry, faith in their fellow-creatures and in themselves." She imagines the world transformed by such an education:

"Dear me, if men and women would only trust, understand and help one another as my children do, what a capital place the world would be" and Mrs. Jo’s eyes grew absent, as if she were looking at a new and charming state of society.

Little Men can be read as an account of the good life, for adults and children, being lived in a good society, where the children largely educate one another. They do so through their turbulent and passionate relationships, as well as through their play, their shared imaginative explorations of the universe, and their intrepid physical explorations of the tops of trees and the tangled dark center of the forest where Rob and Nat get so terrifyingly lost. Their induction into the good life, their education in the moral domain, is continuously carried out in every corner of Plumfield’s sheds and gardens and orchards, as well as in the Socratic schoolroom, with its slates and textbooks. "Dear me," explains Jo, "half the science of teaching is knowing how much children do for one another and when to mix them." The dissolution of the boundaries between the home and the school makes Plumfield a society in miniature, a place that is humane enough for children to flourish in and to learn the real meaning of the humanities they study in their books.

Although some aspects of Plumfield are rooted in Alcott’s own first-hand experiences, it is, essentially, a triumphant work of the imagination. In this imaginary school, Alcott shows us, not simply children’s learning, but children’s lives as they might be, if learning were coterminous with living, and if body and mind, thinking and acting, reason and passion, the one and the many could be educated together. Alcott sets these living, learning children into a different kind of school, more home than school, more society than home. Furthermore, into this "new and charming state of society," Alcott introduces a different kind of teacher. These teachers, according to Susan Laird, "work at the sidelines, as attentively participating observers, not at the centre as autonomous dictators of their students’ learning experiences" (Laird, 1991, p. 283). And all this nearly 50 years before Dewey picked up his pen (Democracy and Education was published in 1916).

Conclusion

In this concluding section, I attempt to distill the lessons that I believe can be learned from these three schools; I do so as a way of emphasizing the need for the whole professional community of early childhood educators to take whatever help we can get to support us in the task of doing our own thinking, reflecting, and analyzing, rather than simply responding to the directions of others.

Earlier, I quoted Susan Isaacs: "I am interested in everything that little children do. . " This interest was strengthened by Isaacs’ unshakeable conviction of the "desperate need of children to be understood " (Isaacs, 1933, p. 13) and of their equally burning desire to understand: "The thirst for understanding . springs from the child’s deepest emotional needs . [it is] a veritable passion" (Isaacs, 1932, p. 113). Isaacs is outspokenly clear that some kinds of schooling, some parts of the education process as it was currently being practiced, could stifle this passion and crush this strong, spontaneous, constant impulse towards learning. The comparisons she makes between what is and what might be cannot have been comfortable reading for contemporary educators intent on maintaining the status quo. Only in the infant school, says Isaacs, "before children have been taught to separate learning from playing and knowledge from life, will you see the strength and spontaneity of the wish to know and understand" (Isaacs, 1932, p. 113). This act of seeing, she implies, is central to the work of the teacher.

I find it remarkable that in Isaacs’ published work (her lectures to teachers have not, I think, been preserved), there is little to read about teachers and teaching. There are some exhilarating passages in The Children We Teach and a stirring letter, written in 1936, full of stinging criticism of what she saw in schools, which has a certain relevance for readers today:

We teach reading and writing far too early, substituting sterile attempts to compose with the pen for living communication by word of mouth. Today the school deliberately deadens the child’s (real) interest and idolatrises the formal tools of learning. (Gardner, 1969, p. 166)

But there is little by way of positive exhortation: her position is that teachers must start with children and develop their thinking from there. In an examiner’s report, for example, she writes:

I do wish we could give up teaching these dreary old theories of play. It seems to me pathetic that students spend so much time on discussing Schiller, Groos, etc instead of . going direct to children at play and seeing for themselves what play does for children’s development. (Gardner, 1969, p. 155)

This is where I believe Isaacs has most to teach us today - and tomorrow. The lesson to be learned from the Malting House school, and every line that Isaacs wrote about it, is that the starting point for effective educational practices is to attend, respectfully and systematically, to "everything that children do."

In describing Annabelle Dixon’s classroom, I tried to demonstrate the relationship between an educator’s core values and her pedagogical practices. In a sense, whenever teachers teach, and whatever else they teach, they always teach themselves. The lessons to be learned from making comparisons between the practices of different educators, from the present or the past, is that "why" questions, in answer to which we can establish the value base of our own work, are more useful than "what" and "how" questions. Asking "why" of others can lead to asking "why" questions of oneself. However, asking why questions, particularly of oneself, can take a considerable toll on the educator’s sense of security and well-being. To ask oneself why is always to risk the Mother Hubbard effect: the cupboard of reason, rationale, justification, explanation may turn out to be bare. In effective classrooms, such as Annabelle’s, the cupboard is well stocked. Practices can be justified. Arguments can be convincingly made about the importance of certain kinds of learning, about the power of children’s thinking, about the activities and experiences that are most likely to strengthen those powers. Educators who can and do speak out as articulate advocates for children’s learning are a most valuable resource for all other educators who are committed to the enterprise of coupling up their most dearly held educational beliefs with the routines and rituals of schooling, with their moment-by-moment interactions in the classroom. Understanding children and children’s learning is not enough; effective educators understand themselves. Anyone who can help in supporting this process - and through courageous acts of comparison, every educator can help - is a most welcome member of a profession that has never ceased striving for quality, but has had, in recent years, limited opportunities to do this kind of thinking, this kind of work.

Finally, I used a fictional classroom, conceived in the imagination of an unjustly neglected 19th-century writer, to illustrate the abiding importance of this power in the lives of teachers and other educators. When, in other contexts, I try to put together arguments to establish the centrality of the imagination in the process we call early childhood education, I am often struck by the confidence and clarity with which other writers from outside this particular professional community make their case. Mary Warnock, for example, has this to say:

I have come very strongly to believe that it is the cultivation of imagination which should be the chief aim of education, and in which our present systems of education most conspicuously fail, where they do fail . in education we have a duty to educate the imagination above all else . (Warnock, 1976, p. 9)

. imagination is that (power) by which, as far as we can, we see into the life of things. (Warnock, 1976, p. 202)

The power to see into the life of things - and into the lives of both teachers and children as Alcott did - is an essential component in the professional capacities of educators of young children. These educators need to be strong in the exercise of their professional imaginations, not indulging in wishful thinking or planning in ever more precise detail their desirable curriculum outcomes, but seeing "into the life of things," seeing into the full-blooded lives of the children for whose learning they have taken on responsibility. To strengthen this power, I am arguing, educators need to commit imaginative acts of their own - in company with Alcott, or Anne Fine, or Janusz Korczak. These tutors of the imagination can help us to see more plainly, and more deeply, if we do not take fright at the intimacy necessitated by such seeing or at the learning that might result from it. Isaacs wrote, in a late paper, in the context of children’s lives, that learning depends on interest, and that interest is derived from desire, curiosity, and fear (Isaacs, 1952, p. 108). All these emotions are familiar to teachers too. They are all part of their most binding responsibilities: to learn more about children, teaching, and learning; to increase their understanding in the interests of children; to put that understanding to work for children. I have presented, in this paper, three of the lessons that will play a part in this learning: the lesson of looking, of seeing more plainly; the lesson of value, of learning to marry purpose with practice; and the lesson of the imagination, which teaches us to aspire (as Alcott did) to a more just and harmonious society, in our schools, in our shared futures.

Acknowledgments

This paper is an edited version of the fourth W.A.L. Blyth Lecture, which was given at the University of Warwick on March 10, 1998. It was first published as an Occasional Paper by the Centre for Research in Elementary & Primary Education (CREPE), University of Warwick, UK, in 1999.

Notes

1. The National Froebel Foundation was founded in 1938 (by the unification of the Froebel Society and the National Froebel Union) and was responsible for the training and examination of teachers in Froebelian methods, awarding the Froebel Teacher's Certificate to its own students and to external students from, for example, the Froebel Educational Institute at Roehampton, Surrey.

2. This ritual is known as "taking attendance" in American classrooms.

3. I am enormously grateful to Annabelle Dixon for the many rewarding discussions I have had with her over the years and for the ways in which she has enriched my thinking and my understanding.

4. The exact reference, as I found when preparing this paper, is just as pithy and just as relevant to children's thinking and learning: "The limits of my language mean the limits of my world" (Wittgenstein, 1922).

5. Ivy Compton-Burnett (1884–1969), English novelist, wrote 20 idiosyncratic and powerful novels about domestic life in upper-class Edwardian families, some of which disturbingly resembled her own. Her recurring themes are power, selfishness, domination, cruelty, and criminality. The families she describes are peopled by a number of remarkably precocious children, whose teachers, tutors, and governesses are no match for them. The schoolroom scenes in these novels have much to say about the complexity and drama of pedagogical relationships.

6. In a useful commentary, Susan Laird, a leading feminist in curriculum studies, makes the thought-provoking observation that Mrs. Jo, as the children call her, is a school teacher but not a classroom teacher (Laird, 1991).

References

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4- Alcott, Louisa May. (1886). Jo’s boys. Boston: Roberts Brothers.

5- Bedell, Madelon. (1980). The Alcotts: Biography of a family. New York: C. N. Potter.

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22- Skinner, B. F. (1962). Walden two. New York: Macmillan Paperbacks (first published in 1948).

23- Tizard, Barbara, & Hughes, Martin. (1984). Young children learning: Talking and thinking at home and school. London: Fontana.

24- van der Eyken, William, & Turner, Barry. (1969). Adventures in education. London: Allen Lane.

25- Warnock, Mary. (1976). Imagination. London: Faber & Faber.

26- Wittgenstein, Ludwig. (1922). Tractatus logico-philosophicus. London: Routledge & Kegan Paul.

Author Information

Mary Jane Drummond is a lecturer in the School of Education, University of Cambridge, United Kingdom. She started teaching children ages 4–7 in London's East End in 1966 and since then has taught in a variety of inner-city schools; she was the head teacher of a school in Sheffield for 4 years. In the 1970s, she worked at the University of Leeds on the Schools Council Project Communication Skills in Early Childhood under Dr. Joan Tough. In 1985, she joined the Institute of Education in Cambridge, an inservice institution working for teachers and other educators all over East Anglia, which was incorporated into the University of Cambridge in 1992. Her work in the past few years has become increasingly interdisciplinary, and her Early Years courses are now attended by educators from the education and social services, and from the voluntary sector. She has close links with the Early Childhood Unit at the National Children's Bureau and with them has published two inservice development packs of materials for early years educators. Her book Assessing Children's Learning (1993) is published by David Fulton in the United Kingdom and by Stenhouse in the United States and Canada. Other recent publications include "Susan Isaacs - Pioneering Work in Understanding Children's Lives" in M. Hilton & P. Hirsch (Eds.), Practical Visionaries: Women, Education and Social Progress 1790–1930 (Longman, 2000) and "A Light in the Darkness - George MacDonald's Stories for Children" in G. Cliff Hodges, M. J. Drummond, & M. Styles (Eds.), Tales, Tellers and Texts (Cassell, 2000).

Mary Jane Drummond

Lecturer in Education

University of Cambridge School of Education

Shaftesbury Road

Cambridge CB2 2BX

Telephone: +1223 369631

Fax: +1223 324421

Email: educ-inst-tutorial@lists.cam.ac.uk


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