Chapter III

 The procedural approach

  1. For many years, syntax and semantics were studied with little regard for the ways people use grammar and meaning in communication. The use of language was relegated to the domain of pragmatics and left largely unexplored. In a procedural approach, however, all the levels of language are to be described in terms of their utilization. Pragmatics is then the domain of plans and goals, and questions of use are freely treated in syntax and semantics as well. Our notions of “cohesion” and “coherence” can be helpful in studying a text only if they deal with how connections and relations are actually set up among communicative occurrences. The concerns of pragmatics are dealt with by exploring the attitudes of producers (“intentionality”) and receivers (“acceptability”), and the communicative settings (“situationality”).

2. Linguists of all persuasions seem to agree that a language should be viewed as a system:1 a set of elements each of which has a function of contributing to the workings of the whole. This definition is so general that its implications for language research can be highly diverse. For example, as noted in II.19, early study entailed extracting systems of minimal units for each aspect of a language; each unit had the function of being distinctive from all the others. However, no one would equate this kind of system with the operations of communicating: people are not combining distinctive units in any direct or obvious way. Indeed, empirical tests show that many abstract distinctions are not perceptibly maintained in real speaking and are recoverable only from context (cf. Pollack & Pickett 1964; Woods & Makhoul 1973; Walker (ed.) 1978).

3. One’s outlook on an object of study depends upon the scientific tasks to be accomplished. The systemization of the object (discovery or imposition of a system in some domain of study)—a notion advanced especially by Carl Hempel—proceeds on the basic assumption that occurring manifestations are controlled by orderly principles rather than by randomness. The description of an object requires that we identify those orderly principles to the extent that the classification of samples can be objectively and reliably performed. The explanation of the object, on the other hand, requires that we uncover the principles whereby the object assumed the characteristics it has and whereby the observable samples were created and used. A description of a language may be given quite independently of any stated or implied explanation. Indeed, descriptions can be simplified by deliberately excluding many considerations which an explanation would have to address.

4. A case in point is the opposition between modularity, where the components of a model are viewed as independent of each other, and interaction, where the components are seen to interlock and control each other (cf. Sussman 1973: 12f.; Winograd 1975: 192). Modular systems are far easier to design and keep track of, since additions or modifications affect only specific elements; in exchange, however, system operations are vastly cumbersome (cf. Levesque & Mylopoulos 1979: 94). Therefore, the largely modular models of language developed in both descriptive structural linguistics and transformational grammar would provide only very inefficient operating systems for the use of language in real time. Language users would appear to be floating in an endless sea of minute structures on different language levels; how syntax and grammar interact with meaning and purpose remains a mystery.

5. There can be no doubt that real communicative behaviour can be explained only if language is modelled as an interactive system (cf. Walker (ed.) 1978). The correlation between levels cannot be ignored or reserved for some after-the-fact phase of “interpretation”. Tests show that a language model in which syntax is autonomous cannot function in real time because of  combinatorial explosion: an immense over-computation of alternative structures and readings that run into astronomically vast operation times.3 The understanding of the road sign [1] (‘slow children at play’), to take a very mild example, would demand too much processing if it had to be analysed independently of the context where it occurs (cf. I.19). The production and reception of a text of greater length, if they had to be done without interaction of language levels and cognitive or situational factors, would seem to be little short of a miracle.

6. Considerations of this kind have led to the inception of a procedural approach to the study of texts in communication. Here, the discovery of units and structural patterns, though still a central activity of investigation, is not a goal in itself. Instead, we are concerned with the operations which manipulate units and patterns during the utilization of language systems in application (cf. II.5). The TEXT figures as the actual outcome of these operations. Hence, a text cannot be explained as a configuration of morphemes or sentences (cf. Chapter II): we would rather say that morphemes and sentences function as operational units and patterns for signalling meanings and purposes during communication. The thoroughness with which text users actually organize and utilize morphemic and syntactic materials should be an issue for empirical research under realistic conditions, rather than an a priori assumption dictated by a particular theory.

7. As Manfred Bierwisch (1966: 130) notes, there is no definite constraint on the number of abstract grammars which could be set up for a language. It has been customary to argue in favour of one grammar over another on the basis of criteria such as simplicity, consistency, and generality. In the procedural approach, however, the decisive criteria must include operationality and human plausibility.4 The intuitions of linguists can be no more than a heuristic, and do not constitute primary data (see discussion in Crystal 1971: 105ff.; Spencer 1973; Ringen 1975; Snow & Meijer 1977). The validity of theories and models must be demonstrated from natural human activities.

8. Research along these lines entails a shifting of priorities among the issues to be explored.5 For example, the distinction between sentences and non-sentences is absolutely indispensable for an abstract grammar, since it decides what the grammar should or should not allow. But if human language users are in fact demonstrably unable to make such a distinction consistently as suggested by the research reviewed in VI.23ff, grammaticality of sentences is only a default in a theory of language as human activity, that is, something assumed in absence of contrary specification (cf. III.18). A presentation is likely to be rejected as a non-text only if the standards of textuality are so strongly defied (e.g. by total absence of discoverable cohesion, coherence, relevance to a situation, etc.) that communicative utilization is no longer feasible (cf. I.3). Such a borderline can depend on factors outside the text itself, e.g., tolerance and prior knowledge of the participants present, or type of text in use.

9. As the distinctions of sentence/non-sentence and text/non-text lose importance, the gradations of efficiency, effectiveness, and appropriateness gain (cf. 1.23). Those factors control what people say at least as much as do the abstract rules of grammar and logic. Procedurally, efficiency contributes to processing ease, that is, the running of operations with a light load on resources of attention and access. Effectiveness elicits processing depth, that is, intense use of resources of attention and access on materials removed from the explicit surface representation.6 Appropriateness is a factor determining the correlation between the current occasion and the standards of textuality such that reliable estimates can be made regarding ease or depth of participants’ processing. Notice that efficiency and effectiveness tend to work against each other. Plain language and trite content are very easy to produce and receive, but cause boredom and leave little impression behind. In contrast, creative language and bizarre content can elicit a powerful effect, but may become unduly difficult to produce and receive. Hence, appropriateness must mediate between these opposed factors to indicate the proper balance between the conventional and the unconventional in each situation.

10. The quality of a text as efficient, effective, and appropriate would be sensitive to the extent of processing resources expended upon its production and reception (cf. III.28). In principle, there is no cut-off point where production is definitively accomplished, but at most a threshold of termination where the producer finds the outcome satisfactory for the intended purpose (cf. Flower & Hayes 1979: 17). Similarly, the receivers’ judgement of text quality will affect the extent of resources they are disposed to expend on processing the presentation. There would be no absolute end to reception, but rather a threshold of termination where utilization appears satisfactory. In principle, someone else could come along and revise the text still further or analyse it yet more thoroughly.7

11. The considerations we have raised suggest how difficult it would be to limit the study of texts to the artefacts of speech or writing alone. Those artefacts are inherently incomplete when isolated from the processing operations performed upon them. If we view a text as a document of decision, selection, and combination, then many occurrences are significant by virtue of the other alternatives which might have occurred instead. Frequently, the basic organization of the language (e.g.1ts regularities of sound, grammar, vocabulary, etc.) provide no decisive guidelines about what should be chosen. We must constantly seek to discover and systemize the motivations and strategies according to which the creation and utilization of texts are kept in operation.

12. On the other hand, we must guard against allowing the text to vanish away behind mental processes. Recent debates over the role of the reader point up the dangers of assuming that text receivers can do whatever they like with a presentation.8 If that notion were accurate, textual communication would be quite unreliable, perhaps even solipsistic. There must be definitive, though not absolute, controls on the variations among modes of utilizing a text by different receivers (cf. III.16). Beaugrande (1980a) proposes that the text itself be viewed as a system, being a set of elements functioning together.9 Whereas a language is a virtual system of available options not yet in use, the text is an actual system in which options have been taken from their repertories and utilized in a particular structure (relationship between or among elements). This utilization is carried out via procedures of actualisation.10

13. Since descriptive structural linguistics and transforma-tional grammar are both preoccupied with virtual systems, little research was expended on actualisation procedures until recently. Even at this early stage of inquiry, it now seems clear that actualisation is organized in ways which are not directly applicable to virtual systems. For instance, there seems to be a very heavy interdependency of decisions and selections, both within one level and among different levels. This interdependency exerts powerful controls on possible variations in utilizing a single text. If one participant adopted an unconstrainedly idiosyncratic outlook on textual occurrences, communication would be seriously damaged.

14. From here, Beaugrande (1980a) concludes that a text constitutes a cybernetic system which continually regulates the functions of its constituent occurrences. Whenever a textual occurrence falls outside the participants’ systems of knowledge about language, content, and purpose, the stability of the textual system is disturbed and must be restored by regulative integration of that occurrence, e.g. via additions or modifications to one’s store of knowledge. Text utilization is blocked only if regulative integration fails, e.g.1f irresolvable discrepancies persist. Under normal conditions, participants uphold systemic stability in maintaining a continuity of cognitive experience by discovering the relations between each meaningful occurrence and its context.11 Even where there are several possible relations that might be constructed, some are more satisfactory or probable than others and will therefore be given preference.12 To the extent that preference knowledge is shared by a communicative community (or indeed, serves to identify such a community), the processing outcome of a particular text will be quite similar among all members of the community. Any noticeably idiosyncratic outcome will elicit special regulation, so that in time, the language user becomes aware of community preferences.

15. The awareness of community preference knowledge is by no means a compulsion to conform to it. On the contrary, a text whose format and content were entirely in conformity with established knowledge would possess an extremely low degree of informativity in the sense of I.17f. (cf. also Chapter VII). Complete knownness or, in cybernetic terms, total stability is evidently uninteresting to the human cognitive disposition. Communication therefore acts as the constant removal and restoration of stability through disturbing and resuming the continuity of occurrences. Hence, the awareness of preference knowledge cannot preclude creativity in textual communication; instead, it merely enables participants to find an orientation for creativity and to provide or recover its motivations within a given textual system.

16. The above line of argument suggests how a systems-theoretical approach would resolve the dilemma of admitting human processes as factors in the utilization or investigation of texts. The users of a system must be aware of the system’s functional principles, or else utilization will be impaired or blocked. Certain classes of occurrences, e.g. ambiguities, contradictions, or discrepancies, which are likely to impede utilization or to render it hard to control, are therefore considered inopportune except for special effect (e.g.1n-jokes or paradoxes). The standards of textuality we set forth in this book are all relational in character, concerned with how occurrences are connected to others: via grammatical dependencies on the surface (cohesion); via conceptual dependencies in the textual world (coherence); via the attitudes of the participants toward the text (intentionality and acceptability); via the incorporation of the new and unexpected into the known and expected (informativity); via the setting (situationality); and via the mutual relevance of separate texts (intertextuality).

17. This emphasis upon relational continuity and connectivity allows us to study textuality and text processing in terms of formal problem-solving in the sense of Newell and Simon (1972).13 A problem is defined as a pair of states whose connecting pathway is subject to failure (not being traversed) because it can’t be found or identified. A serious problem would obtain if the chances of failure significantly outweigh those of success. The problem is said to be solved when a pathway is found leading without interruption from the initial state to the goal state. If a point is reached where the problem-solver cannot advance at all toward the goal, a block has occurred. Clearly, the crucial operation of problem solving is the search for connectivity between states. Three search types should be mentioned:14

(a) In depth-first search, the problem-solver tries to dash toward the goal along one continuous pathway, giving little heed to alternatives as long as progress moves forward. If a block is encountered, the problem-solver moves back only far enough to get moving again and then resumes its dash forward. Depth-first search is not very safe except when the pathway is obvious and uncontested.

(b) In breadth-first search, the problem-solver looks ahead only up to a proximate sub-goal and weighs the various pathways to get there. The best path is attempted, and, if success ensues, the procedure is repeated with the next sub-goal, until the main goal is eventually attained. Breadth-first search is circumspect and safe, but may be inefficient and laborious if the pathway is obvious.

(c) In means-end analysis, the problem-solver identifies the main differences between the initial state and the goal state, and tries to reduce them one by one. If the differences seem too great, an intermediate subgoal may be taken for comparison first. While depth-first and breadth-first search can be used in forward means-end analysis, efficiency can be increased by working both forward from the initial state and backward from the goal state as seems opportune. Indeed, any state along the way might be a useful control centre to work out from in either direction.

 18. We can now sketch out a model of the production of texts, using the notions presented in this chapter so far (compare Beaugrande 1979b; Flower & Hayes 1979; Meyer 1979). The model foresees a loosely sequential set of phases of processing dominance. We say “dominance” because it seems unlikely and unnecessary that the operations of one phase must shut down those of all the others; rather, there could be a threshold beyond which the focus of processing resources is directed to one phase of operations, while other operations are only reduced rather than suspended. The notion of “dominance” helps to resolve the opposition between modularity and interaction (III.4) by allowing the processor to distribute its activities in various proportions (see Winograd 1975)’. The interaction among levels (sound, syntax, meaning, etc.) is managed by a class of operations called mapping: the correlation of elements, structures, and relations of different types.16 It is not yet decidable how much organizational activity must be done within a single level before mapping is carried out to other levels. There will often by asymmetry (lack of one-to-one correspondence) between levels, but defaults (assumptions made when no specifications are given) and preferences (dispositions toward one option over others) for mapping would help to reduce current processing load (cf. VII.12).

19. Under typical conditions, operations are probably not strongly tailored to the individual text materials. There ought to be powerful, general procedures capable of accepting and adapting to a substantial diversity of data and occasions (cf. X.5). Bobrow and Winograd’s (1977) notion of procedural attachment (specification or modification of standard operations for current needs) seems to fit here. The procedures would be called by mechanisms of pattern-matching that detect a reasonable fit between current and stored materials.17 While the general procedures are running, specific details can be filled in where suitable.

20. The first phase of text production would usually be planning (cf. Flower & Hayes 1979; Meyer 1979). The producer has the intention of pursuing some goal via the text, e.g. distributing knowledge or obtaining compliance with a plan (cf. I.13; VI.16ff.). In the most immediate sense, the production of the text is a sub-goal along the pathway to the main goal. Through means-end analysis (III.17(c)), the Producer could try to calculate which of various possible texts would make the greatest contribution to reducing the differences between the current state and the goal state. If this question is hard to decide, one may try breadth-first search by offering several texts in succession and hoping that one of them will lead to success. The texts are integrated into the plan through plan attachment (a subtype of procedural attachment as explained in III.19).

21. The setting of a goal and the choice of a text type will be closely followed by (or will overlap with) a phase of ideation. An idea would be an internally initiated (not environmentally forced) configuration of content providing control centres for productive, meaningful behaviour, including text production. The mapping of a plan structure onto an idea (or vice versa) is doubtless intricate, especially when it would not be expedient to talk about the plan too openly. For instance, the goal of persuading people may demand elaborate searching for ideas that would be appealing to the group’s presumed view of the world, or that would change that view in a useful manner (cf. VI.16; VIII.17ff.) One would hardly announce the plan itself (cf. VI.8; VIII.1)!

22. Following ideation, a phase of development can serve to expand, specify, elaborate, and interconnect the ideas obtained. Development can be envisioned as a searching of stored knowledge spaces, i.e., internally organized configurations of content in the mind. Development may vary between summoning forth more or less intact spaces and bringing together very unusual constellations. The problem solving used to make content coherent by connecting it via relational pathways (to be demonstrated in Chapter V) would be correspondingly more intense in the latter case. Still, if the text is to be informative in the sense of chapter VII, there would be at least some new configurations in its textual world.18

23. The results of ideation and development need not yet be committed to particular natural language expressions (cf. Flower & Hayes 1979: 24). They might, for instance, be composed of mental imagery19 for scenes or event sequences. Hence, there must be a phase of expression to which the content accruing so far is relayed. Search for expressions would be a special instance of problem-solving by constructing pathways from one level of organization to another. However, search would be supported if, as seems plausible, the activation of mental content naturally tends to spread out to the typical expressions stored for that content (cf. V.12). Already active expressions would then be taken as preferences in the sense of III.18.

24. A special kind of problem could arise here. Content such as mental imagery of a scene or of a sequence of gradual events might be continuous, while the expressions are more or less discrete elements an important illustration of the asymmetry mentioned in III.18. The text producer must decide upon the boundaries that scene components or events should be assigned (cf. Halliday 1967-68; Miller & Johnson-Laird 1976; Talmy 1978). Different expressions will frequently suggest boundaries of greater or lesser extent and distinctness.

25. Since the presentation of texts is limited to the sequential media of sound or print, the final phase of production must be parsing: putting the expressions relayed from the last phase into grammatical dependencies and arranging the latter in a

linear format for the surface text. The repertory of grammatical dependencies in a language such as English is much smaller than the repertory of conceptual relations we would consider necessary (cf. IV.7ff versus V.26), so that asymmetry enters once again. There would be less asymmetry in languages with many grammatical cases that signal conceptual relations (e.g. Finnish, Hungarian).20

26. The most prominent preference in linearization is that of adjacency, i.e. the elements in a grammatical dependency are arranged ‘next to each other in the progressive series. Active storage (cf. IV.2; V.4) would be able to parse dependencies with maximum ease when the elements are kept in closely knit groups. However, many motivations readily override this preference. When a single element enters into several dependencies in a phrase or sentence, some of its dependent elements will have to be removed to some distance. In the opening of the ‘rocket’-text from I.1, the sequence:

[4a] A great black and yellow V-2 rocket 46 feet long

contains one element ‘rocket’ entering into dependencies with a determiner (‘a’) and five modifiers (‘great’, ‘black’, ‘yellow’, ‘V-2’, ‘long’). Since these dependent elements cannot all be adjacent, conventions are applied for the ordering of modifier types (cf. Vendler 1968; Martin 1969; Danks & Glucksherg 1971), e.g. size before colour. In another sequence from the same text:

[4b] With a great roar and burst of flame

knowledge of the world intervenes to indicate that ‘great’ modifies both ‘roar’ and ‘burst’ (the determiner ‘a’ not being repeated), but ‘of flame’ probably modifies only ‘burst’. In contrast, the sequence of sample [6] running:

[6a] Great words or silences of love

would preferentially be construed as having ‘great’ and ‘of love’ depend on both ‘words’ and ‘silences’. If the modifiers represented opposed concepts, however, for example:

[6b] Great words or silences of smallest size

we would link each modifier only with the element adjacent to it. We can see that adjacency is a useful but relatively weak preference in parsing.

27. We have briefly surveyed the phases that might plausibly constitute text production: planning, ideation, development, expression, and parsing. As was cautioned in III.18, the phases should not be envisioned as running in a neat time sequence with clear-cut boundaries. It would be perfectly conceivable that all five phases could be interacting at once, with dominance shifting about rapidly. When difficult or unsatisfactory results emerge in one phase, dominance could shift back to a “deeper” phase (i.e. one further removed from the surface text under production) for new modes of organisation. Later decisions may reveal that previous ones were not advantageous; for instance, development and expression may call forth changes in planning and ideation.22 Indeed, there may be some such principle as the “intention of the text” whereby the textual materials reveal organizational tendencies of their own during production and impose them upon the producer, provided operations are not terminated too soon (compare Iser (1980) on text intention in the reader’s viewpoint). In III.10, we suggested that production is an inherently open-ended process whose termination is carried out when a threshold of satisfaction is attained. Perhaps that threshold could be evoked by the emergence of such material-specific tendencies as depicted here. Yet even then, there might be potential left for still more revising.

28. The continued practice of text production could lead to a telescoping of phases. A standard of text quality that once demanded much shifting among phases for revision might become attainable in a single straightforward run-through. Writers or speakers who are considered talented and important may not appear to expend extreme effort on production, but they may offset shorter duration with correspondingly greater intensity of processing. Even they presumably had to work through early stages where vast expenditures were conscious and manifest. The “intention of the text” —if there are grounds for such a notion—might become easier to discern through extended experience. That effect would explain why a practiced producer can improve upon other people’s texts (not just on his or her own) without having actually participated in their mental processes.22

29. The receiving of texts could be modelled as a corresponding set of phases of processing dominance in the reverse direction. 23 The receiver would begin on the “surface” with the presentation itself and work “downward” to the “deeper” phases.24 The surface text would be parsed from the linear string into grammatical dependencies (an operation we Outline in IV 7ff.). The elements in those dependencies are the expressions which activate concepts and relations in mental storage—a phase we could call concept recovery (cf. V.4). As the conceptual configuration accrues and shows densities and dominances, the main ideas can be extracted in a phase of idea recovery. The extraction of the plans which the text producer appears to be pursuing would be performed during plan recovery. The receiver is now able to consider possible actions and reactions.

30. Since we explore the reception processes in detail in Chapters IV, V, and IX, we will not pursue them here at any length. We should however point out that the phases of reception, like those of production, need not be separated by rigid boundaries. There is more probably a shifting of dominance with extensive interaction and consultation among the phases, especially when the results in any phase are considered doubtful or disturbing. There would also be variation in the intensity and duration of the phases, depending on such factors as: (a) the receiver’s judgement of the text’s quality (cf. III.10); (b) the degree to which the text’s content should be integrated into the receiver’s store of prior knowledge (cf. Spiro 1977; Beaugrande 1980c); (c) the receiver’s cognitive and emotional involvement in the communicative situation. For instance, the amount of inferencing done by the text receiver might vary considerably (cf. I.11; V.34).

31. Consequently, text reception too would involve a threshold of termination where the comprehension and integration of the text is deemed satisfactory (cf. III.10). If the text is important for the receiver, the threshold will be high. A professional literary critic, for example, would expend atypically great amounts of processing on specific literary samples, encompassing not only the most probable and easily recoverable aspects of format and content, but many more subtle subsidiary aspects as well. A still more extreme illustration would be the analysis performed by a professional linguist uncovering not only the actually intended structural organization, but many possible alternatives that normal text receivers would not be likely to notice.

32. In some respects, the reception of a text would not be a reversal of the procedures of production (cf. III.29). The receiver must try to anticipate the producer’s activities in order to react rapidly and intelligently. Here, receiving has the same directionality as producing, i.e. the receiver is trying to emulate the production process,25 thus rendering more immediate the recovery of main ideas and plans (III.29). Without the continual creating and testing of hypotheses about what the producer is doing, the receiver could easily bog down in an undirected mass of alternatives and non-determinacies. There would be an explosion of structures and relations that processing could hardly handle in any realistic expanse of time.26

33. This very rough outline of production and reception will be filled in somewhat in later chapters. It is a difficult object of investigation because many operations are hard to observe and control in a reliable experimental setting. We must set up procedural models which reflect the operations that might be responsible for the means whereby texts are created and used. These models can be tested in two ways. First, their functioning can be simulated on computers, as is done in the field of research known as artificial intelligence (cf. surveys in Minsky & Papert 1974; Goldstein & Papert 1977; Winston 1977; Winston & Brown (eds.) 1979; X.26ff.).27 Terry Wino-grad (1972) demonstrated how a computer could be programmed to use a Halliday-style grammar to process English utterances about moving blocks on a table. Roger Schank’s theory of “conceptual dependency” views language understanding as the application of knowledge about sequences of events and actions (cf. Schank et al. 1975; Schank & Abelson 1977). To the extent that they involve processing tasks, some issues of traditional text linguistics have been restated computationally, e.g. use of pronouns (cf. Grosz 1977; Webber 1978a: Hobbs 1979). Although the human mind may not handle language processes in exactly the same way as the computers, these machines are indispensable for testing whether complex procedural models can operate (cf. X.27).

34. Another line of inquiry is developing in cognitive psychology, the branch of psychology concerned with acquisition, storage, and use of knowledge (survey in Kintsch 1977a).28 Here, models are tested against the cognitive and linguistic behaviour of human subjects on such tasks as recognizing and recalling what has been heard or read. Although most work was devoted to sentences (survey in Clark & Clark 1977), texts have become increasingly prominent objects of investigation. We shall review some trends in that domain in IX.24ff

35. It would be wrong to imply that the production and reception of texts are well explored at this time. On the contrary, we are only gradually achieving a consensus about what the issues are. The true complexity of the operations involved doubtless exceeds by several orders of magnitude the most complex models developed so far (cf. X.28). For the present, we would like to imagine that complexity will still prove manageable (cf. X.29), due to principles like procedural attachment (III.19) and general problem-solving (III.17). Thus, although there would be a vast number of operations in text processing, there would be a reasonably small number of operation types, e.g. maintaining continuity and connectivity, testing hypotheses, matching patterns, computing probabilities, planning toward goals, solving problems, and so forth (cf. X.4f.). In the following discussion of the standards of textuality, we shall repeatedly return to these operation types as illustrated via naturally occurring texts of many kinds.

 

Notes

1 See for example Saussure (1916); Firth (1957); Hartmann (1963a, 1963b); Coseriu (1967); Halliday (1976); Berry (1977).

2 Cited in Stegmililer (1969:205).

3 The importance of this factor emerged in early computer models of language processing, e.g. Petrick (1965); cf. Woods (1970).

4 Compare the notion of “procedural adequacy” in Schank & Wilensky (1977).

5 Compare  0.6; X.6.

6 cf. Craik & Lockhart (1972); Mistler-Lachman (1974). We make no attempt to state just how many “depths” there are in all, but these seem fairly safe: (1) substance of sound/print; (2) linear surface presentation; (3) grammatical dependency structure; (4) conceptual-relational text-world; (5) main idea; (6) plan. These “depths” moving from shallowest (1) to deepest (6) in the first will (except for (1), cf. note 2 to Chapter 1) be discussed later on in the chapter.

7 As Peter Hartmann (personal communication to RdB) observes, professional linguists have a disproportionately high threshold of processing and uncover far more structures than normal language users. Unfortunately, the linguist’s analysis has all too often been taken as a model of language comprehension, most drastically by transformationalists (cf. overview in Clark & Clark 1977).

8 See especially the papers in Warning (ed.) (1975).

9 cf. Hartmann (1963a: 85f.); Oomen (1969); Fowler (1977: 69).

10 Actualisation was already treated by Coseriu (1955-6).

11 The vital importance of continuity has all too frequently been overlooked in linguists’ preoccupation with analysis into units and constituents. All the standards of textuality are closely related to continuity (cf. for instance III.16; IV.1; V.2; VII.13; IX.29).

12, Our use of the term is rather broader than that of its originator, Yorick Wilks (see now Wilks 1979).

13 The “general problem-solver” was an early programme (Ernst & Newell 1969) in which powerful operations were decoupled from the specifics of tasks at hand. Our treatment is closer to that of Winston (1977) because of our network representations. See following note.

14 See Winston (1977: 90ff.; 130ff )

15 The notion of “control centre” is crucial in understanding procedures of access (cf. for instance IV.7; V.24, 29f.; Beaugrande 1980a).

16 “Mapping” was originally a concept of formal logic, but it can also be operationalised (cf. Goldman, Balzer & Wile 1977).

17 On pattern-matching, cf. K. Colby & Parkinson (1974); Kuipers (1975); Pavylidis (1977); Rumelhart (1977a); Winston (1977).

18 To what degree a textual world (cf. 1.6; V.2) ought to match or differ from prior stored knowledge, and how this matching is done, are among the most burning questions for a science of texts. Sec IX.31ff.

19 Mental imagery is an inordinately difficult issue (cf. Paivio 1971), but it can’t be ignored (cf. VI.26; VII.10; IX.32).

20 Asymmetry would mean, in operational terms, problem-solving on interactive levels with units and paths of different size, range, and constitution. Still, the levels are mutually supportive at least some of the time (cf. V. 30).

21 On this use of the notion “deeper”, see note 6 to this chapter and note 19 to Chapter 11.

22 The writer Peter von Tramin (personal communication to WD) maintains that, before he ever begins to write, he has already decided upon the content of the text, the course of events, the arrangement of the various segments, the assignment of materials to the foreground or the background, the use of retardation or expansion, the elements of dialogue, and the characters of the story line. Such an example is doubtless unusual: decisions like these would more often be made along the way during the writing. A more disturbing phenomenon is how other writers can weigh one’s own decisions and suggest changes, even though they did not partake in the original planning at all (cf. III.28 and note 22a to this chapter).

22a Indeed, revision often seems easier for non-producers of the text because the producer already knows the intended ideas and fails to see cases of inefficient expression or downright error.

23 A reversible formalism which both parses the ‘rocket’-text onto a network and vice-versa is given in Simmons & Chester (1979); Beaugrande (1981b).

24 On “depth”, see note 6 to this chapter.

25 A procedure called “analysis-by-synthesis” (cf. Neisser 1967).

26 On “explosion”, cf. note 3 to this chapter.

27 “Intelligence” is taken to designate a human-like capacity to deal with a wide range of diverse tasks and input (as opposed to the computer-like slavish dependence on strict steps and rigid formats) (cf. Lenat 1977; Walker (ed.) 1978; Simon 1979). Compare X. 5; X.26.

28 The cooperation of cognitive psychologists with computer scientists in artificial intelligence has fostered the discipline of “cognitive science” (cf. I.24; X.3).

 

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