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Force Dynamics 401CR racing simulator - Introduction
Force Dynamics 401CR racing simulator - Introduction
Published: 2011/01/07
Channel: fdynamics
Force Dynamics 401cr racing simulator - Lotus 49 engine torture (iRacing / Watkins Glen)
Force Dynamics 401cr racing simulator - Lotus 49 engine torture (iRacing / Watkins Glen)
Published: 2013/09/16
Channel: fdynamics
Star Wars Battlefront on the Force Dynamics 401cr motion platform!
Star Wars Battlefront on the Force Dynamics 401cr motion platform!
Published: 2015/12/08
Channel: fdynamics
GTA V on the Force Dynamics 401cr motion platform!
GTA V on the Force Dynamics 401cr motion platform!
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Channel: fdynamics
Force Dynamics, Richard Burns Rally
Force Dynamics, Richard Burns Rally
Published: 2006/01/02
Channel: Antonio Muñoz
iRacing: Nordschleife and the C7 on the Force Dynamics 401cr racing simulator
iRacing: Nordschleife and the C7 on the Force Dynamics 401cr racing simulator
Published: 2015/12/17
Channel: fdynamics
Forces and Dynamics - Newtons 1st law - (IB Physics, AP, GCSE, A level)
Forces and Dynamics - Newtons 1st law - (IB Physics, AP, GCSE, A level)
Published: 2012/05/04
Channel: Mitch Campbell
Racing simulator: Force Dynamics 401cr / Assetto Corsa / Nordschleife
Racing simulator: Force Dynamics 401cr / Assetto Corsa / Nordschleife
Published: 2015/03/19
Channel: fdynamics
Force Dynamics 401cr flight simulator + X-Plane 10
Force Dynamics 401cr flight simulator + X-Plane 10
Published: 2016/03/14
Channel: fdynamics
T-Scan: Digital Bite Force Dynamics with Tekscan
T-Scan: Digital Bite Force Dynamics with Tekscan's Shane Varga
Published: 2017/04/07
Channel: Tekscan Dental: Home of the T-Scan™
OutRun on the Force Dynamics 401CR racing simulator
OutRun on the Force Dynamics 401CR racing simulator
Published: 2014/12/06
Channel: fdynamics
Force Dynamics 401cr motion simulator - Dirt Rally
Force Dynamics 401cr motion simulator - Dirt Rally
Published: 2015/10/15
Channel: fdynamics
Miata vs. Miata - Force Dynamics 401cr racing simulator vs. reality accelerometer comparison
Miata vs. Miata - Force Dynamics 401cr racing simulator vs. reality accelerometer comparison
Published: 2015/06/30
Channel: fdynamics
SNES Super Mario Kart on the Force Dynamics 301
SNES Super Mario Kart on the Force Dynamics 301
Published: 2008/04/28
Channel: fdynamics
Cinema 4D Dynamics PART 14: Force, Attract and Repel
Cinema 4D Dynamics PART 14: Force, Attract and Repel
Published: 2014/06/24
Channel: QuickVFX
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Channel: CrashCourse
Dynamics: What are Forces?
Dynamics: What are Forces?
Published: 2017/02/13
Channel: Professor Dave Explains
Force Dynamics 401cr Test Drive
Force Dynamics 401cr Test Drive
Published: 2011/03/01
Channel: Engadget
Force Dynamics 301 Racing Simulator
Force Dynamics 301 Racing Simulator
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Channel: Vlado R
Dynamics Lecture 15: The work of a force
Dynamics Lecture 15: The work of a force
Published: 2013/09/30
Channel: Yiheng Wang
Force Dynamics 401cr.MPG
Force Dynamics 401cr.MPG
Published: 2012/01/24
Channel: MultiPorschefan
Force Dynamics 401 - How to Ruin a Rally Car
Force Dynamics 401 - How to Ruin a Rally Car
Published: 2008/04/29
Channel: fdynamics
Force Dynamics 401 video 1 - LFS
Force Dynamics 401 video 1 - LFS
Published: 2008/01/21
Channel: fdynamics
Molecular Dynamics - Part 2 - Lennard Jones Potential and it
Molecular Dynamics - Part 2 - Lennard Jones Potential and it's Force
Published: 2017/02/24
Channel: Basic Simulations
AP Physics 1: Dynamics Review (Newton
AP Physics 1: Dynamics Review (Newton's 3 Laws and Friction)
Published: 2015/03/09
Channel: Flipping Physics
Force Dynamics 301 a Oculus Rift CV1
Force Dynamics 301 a Oculus Rift CV1
Published: 2017/02/08
Channel: Jaroslav Ševčík
CompChem02.06 Simulations with MM Force Fields — Monte Carlo and Molecular Dynamics Part I
CompChem02.06 Simulations with MM Force Fields — Monte Carlo and Molecular Dynamics Part I
Published: 2014/06/03
Channel: Chris Cramer
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Thorin's Thoughts - Principles: Force-Buying Dynamics (CS:GO)
Published: 2017/08/19
Channel: Thooorin
Force vs. Time on a Dynamics Cart
Force vs. Time on a Dynamics Cart
Published: 2014/12/03
Channel: Flipping Physics
Force Dynamics Techdemo
Force Dynamics Techdemo
Published: 2006/10/23
Channel: Prolek AS
Dirt 2 Ken Block Force Dynamics Trailer [HD]
Dirt 2 Ken Block Force Dynamics Trailer [HD]
Published: 2009/08/26
Channel: Machinima
Force dynamics in Drammen Norway
Force dynamics in Drammen Norway
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Channel: MultiPorschefan
Force Dynamics - Multi-Player Product Concept
Force Dynamics - Multi-Player Product Concept
Published: 2007/11/14
Channel: Wooblemaster
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Centripetal Force & Acceleration Physics Lesson Part 1 Dynamics
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Channel: PhysicsEH
Centripetal Force Part 6 Pendulum Dynamics Physics Lesson
Centripetal Force Part 6 Pendulum Dynamics Physics Lesson
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ANSYS Actuator mechanism analysis Force and Velocity | Rigid Body Dynamics | ANSYS Workbench | GRS
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Channel: CAE Worldwide
Force Dynamics - Unfair Wheel Test
Force Dynamics - Unfair Wheel Test
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Channel: fdynamics
Force Dynamics 301 HD
Force Dynamics 301 HD
Published: 2010/04/19
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Channel: mymehdi
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Channel: SageDynamics
Cinema 4D Dynamics PART 15: Particle Forces
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Force Fields and Molecular Dynamics
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Channel: SimbiosMovies
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Physics - Fluid Dynamics (20 of 32) Force Due to Drag Coefficient
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AP Physics C: Dynamics Review (Mechanics)
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WIKIPEDIA ARTICLE

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Example of a force dynamics diagram

Force dynamics is a semantic category that describes the way in which entities interact with reference to force. Force Dynamics gained a good deal of attention in cognitive linguistics due to its claims of psychological plausibility and the elegance with which it generalizes ideas not usually considered in the same context. The semantic category of force dynamics pervades language on several levels. Not only does it apply to expressions in the physical domain like leaning on or dragging, but it also plays an important role in expressions involving psychological forces (e.g. wanting or being urged). Furthermore, the concept of force dynamics can be extended to discourse. For example, the situation in which speakers A and B argue, after which speaker A gives in to speaker B, exhibits a force dynamic pattern.

Context[edit]

Introduced by cognitive linguist Leonard Talmy in 1981, force dynamics started out as a generalization of the traditional notion of the causative, dividing causation into finer primitives and considering the notions of letting, hindering, and helping. Talmy further developed the field in his 1985, 1988 and 2000 works.

Talmy places force dynamics within the broader context of cognitive semantics. In his view, a general idea underlying this discipline is the existence of a fundamental distinction in language between closed-class (grammatical) and open-class (lexical) categories. This distinction is motivated by the fact that language uses certain categories of notions to structure and organize meaning, while other categories are excluded from this function. For example, Talmy remarks that many languages mark the number of nouns in a systematic way, but that nouns are not marked in the same way for color. Force Dynamics is considered to be one of the closed-class notional categories, together with such generally recognized categories as number, aspect, mood, and evidentiality.

Aspects of force dynamics have been incorporated into the theoretical frameworks of Mark Johnson (1987), Steven Pinker (1997) and Ray Jackendoff (1990) (see Deane 1996 for a critical review of Jackendoff’s version of Force Dynamics). Force dynamics plays an important role in several recent accounts of modal verbs in various languages (including Brandt 1992, Achard 1996, Boye 2001, and Vandenberghe 2002). Other applications of force dynamics include use in discourse analysis (Talmy 1988, 2000), lexical semantics (Deane 1992, Da Silva 2003) and morphosyntactical analysis (Chun & Zubin 1990, Langacker 1999:352-4).

Theoretical outline[edit]

Basic concepts[edit]

Figure 1 – Basic elements of the diagrammatic system commonly used to represent Force Dynamic patterns.

Expressions can exhibit a force dynamic pattern or can be force-dynamically neutral. A sentence like The door is closed is force-dynamically neutral, because there are no forces opposing each other. The sentence The door cannot open, on the other hand, exhibits a force dynamic pattern: apparently the door has some tendency toward opening, but there is some other force preventing it from being opened (e.g., it may be jammed).

A basic feature of a force-dynamic expression is the presence of two force-exerting elements. Languages make a distinction between these two forces based on their roles. The force entity that is in focus is called the agonist and the force entity opposing it is the Antagonist (see a, figure 1). In the example, the door is the agonist and the force preventing the door from being opened is the Antagonist.

Force entities have an intrinsic force tendency, either toward action or toward rest. For the agonist, this tendency is marked with an arrowhead (action) or with a large dot (rest) (see b, figure 1). Since the antagonist by definition has an opposing tendency, it need not be marked. In the example, the door has a tendency toward action.

A third relevant factor is the balance between the two forces. The forces are out of balance by definition; if the two forces are equally strong, the situation is not interesting from a force-dynamic point of view. One force is therefore stronger or weaker than the other. A stronger force is marked with a plus sign, a weaker force with a minus sign (c, figure 1). In the example, the Antagonist is stronger, since it actually holds back the door.

The outcome of the Force-Dynamic scenario depends on both the intrinsic tendency and the balance between the forces. The result is represented by a line beneath Agonist and Antagonist. The line has an arrowhead if the outcome is action and a large dot if the outcome is rest (d, figure 1). In the example, the door stays closed; the Antagonist succeeds in preventing it from being opened. The sentence 'The door cannot open' can be Force-Dynamically represented by the diagram at the top of this page.

Using these basic concepts, several generalizations can be made. The force dynamic situations in which the Agonist is stronger are expressed in sentences like ‘X happened despite Y’, while situations in which the Antagonist is stronger are expressed in the form of ‘X happened because of Y’. In the latter, a form of causation that Talmy termed extended causation is captured.

More complexity[edit]

Figure 2 – force dynamic diagrams with a shifting Antagonist.

More possibilities arise when another variable is introduced: change over time. This variable is exemplified by such expressions as A gust of wind made the pages of my book turn. In force dynamic terms, the situation can be described as the entering of an antagonist (the wind) that is stronger in force than the agonist (the pages) and changes the force tendency of the pages from a state of rest to a state of action (turning). In force dynamic diagrams, this motion (‘change over time’) of the Antagonist is represented by an arrow.

The diagrams in Figure 2 to the right combine a shifting antagonist with agonists of varying force tendencies. The following sentences are examples for these patterns:

a. A gust of wind made the pages of my book turn.
b. The appearance of the headmaster made the pupils calm down.
c. The breaking of the dam let the water flow from the storage lake.
d. The abating of the wind let the sailboat slow down.

In this series of scenarios, various kinds of causation are described. Furthermore, a basic relationship between the concepts of ‘causing something to happen’ and ‘letting something happen’ emerges, definable in terms of the balance between the force entities and the resultants of the interaction.

It should be noted that force entities do not have to be physical entities. Force dynamics is directly applicable to terms involving psychological forces like to persuade and to urge. The force dynamic aspect of the sentence Herbie did not succeed in persuading Diana to sing another song can be graphically represented as easily as the earlier example sentence The door cannot open (and, incidentally, by the same diagram).

In addition, force entities do not have to be physically separate. A case in point is reflexive force dynamic constructions of the type Chet was dragging himself instead of walking. It is perfectly possible to represent this in a Force Dynamic diagram (representing Chet’s will as the Agonist keeping the body — the Antagonist — in motion). Thus, even though Chet is one person, his will and his body are conceptualized separately.

Psychological basis[edit]

The key elements of force dynamics are very basic to human cognition. Deane (1996:56) commented that “[f]rom a cognitive perspective, Talmy’s theory is a striking example of a psychologically plausible theory of causation. Its key elements are such concepts as the (amount of) force exerted by an entity, the balance between two such forces, and the force vector which results from their interaction. Such concepts have an obvious base in ordinary motor activities: the brain must be able to calculate the force vector produced by muscular exertion, and calculate the probable outcome when that force is exerted against an object in the outside world.”

In cognitive linguistic terms, force dynamic expressions reflect a conceptual archetype because of their conceptual basality (Langacker 1999:24). In this view, expressions involving psychological forces reflect an extension of the category of force dynamics from the physical domain to the psychological domain.

Limitations and criticism[edit]

From the perspective of lexical semantics, some people have argued that force dynamics fails to be explanatory. For example, Goddard (1998:262–266) raised the objection that "a visual representation cannot — in and of itself — convey a meaning. (…) From a semiotic point of view, a diagram never stands alone; it always depends on a system of verbal captions, whether these are explicit or implied." He goes on to attack the verbal definition of causation Talmy provides, claiming that it is circular and obscure. Furthermore, Goddard objects to the use of the "semantically obscure concept of force". However, Goddard's objections lose some of their strength in light of the fact that Force Dynamics does not present itself as a complete semantic description of the constructions involving Force Dynamic concepts.

Another objection regarding force dynamics is the question, raised by Goddard (1998:81), of how different representational devices are supposed to interact with one another. As the field of cognitive linguistics is still in a state of theoretical flux, no systematic account addresses this issue yet. However, it is an objection many cognitive linguists are aware of. Some cognitive linguists have replied to such objections by pointing out that the goal of Cognitive Linguistics is not to construct a formal system in which theorems are proved, but rather to better understand the cognitive basis of language (cf. Newman 1996:xii).

Jackendoff (1990, 1996:120–3), in the process of incorporating aspects of force dynamics into his theory of conceptual semantics, has proposed a reconfiguration of some of its basic notions. In Jackendoff’s view, this reconfiguration "conforms better to the syntax of force-dynamic verbs" (1996:121).

References[edit]

Primary sources[edit]

  • Talmy, Leonard (2000) ‘Force Dynamics in Language and Cognition’ Chapter 7 of Talmy, Toward a cognitive semantics vol I: Concept structuring systems. Cambridge: MIT Press. [This chapter is a modestly rewritten version of:]
  • Talmy, Leonard (1988a) ‘Force Dynamics in language and cognition’ In Cognitive Science, 12, 1, 49–100. [This article is a moderately rewritten version of:]
  • Talmy, Leonard (1985a) ‘Force Dynamics in language and thought’ In Papers from the Regional Meetings, Chicago Linguistic Society, 21, 293–337.

Secondary sources[edit]

  • Achard, Michel (1996) ‘French modals and speaker control’ In Goldberg, Adele (ed.), Conceptual Structure, Discourse and Language. Stanford, CA.: CSL&I.
  • Boye, Kasper (2001) ‘The Force-Dynamic core meaning of Danish modal verbs’ In Acta Linguistica Hafniensia, 33, 19–66.
  • Brandt, Per Aage (1989) 'Agonistique et analyse dynamique catastrophiste du modal et de l’aspectuel: quelques remarques sur la linguistique cognitive de L. Talmy’ In Semiotica, 77, 1–3, 151–162.
  • Brandt, Per Aage (1992) La charpente modale du sens: Pour une simio-linguistique morphogenitique et dynamique. Amsterdam: John Benjamins.
  • Chun, Soon Ae & David A Zubin (1990) ‘Experiential vs. Agentive Constructions in Korean Narrative’. In Proceedings of the Berkeley linguistics Society 16, 81–93.
  • Deane, Paul D (1992) 'Polysemy as the consequence of internal conceptual complexity: the case of over’ In Proceedings of the Eastern States Conference on Linguistics (ESCOL) , 9, 32–43.
  • Deane, Paul D (1996) ‘On Jackendoff’s conceptual semantics’ In Cognitive Linguistics, 7, 1, 35–91.
  • Goddard, Cliff (1998) ‘‘Semantic Analysis: A Practical Introduction‘‘ New York: Oxford University Press. (esp p 262-266)
  • Jackendoff, Ray (1990) Semantic Structures. Cambridge, Mass.: MIT Press.
  • Jackendoff, Ray (1996) 'Conceptual semantics and cognitive linguistics’. In Cognitive Linguistics, 7, 1, 93–129.
  • Johnson, Mark (1987). The Body in the Mind: The Bodily Basis of Meaning, Imagination, and Reason, University of Chicago.
  • Langacker, Ronald W. (1999) Grammar and Conceptualization. Cognitive Linguistics Research vol. 14. Berlin/New York: Mouton de Gruyter.
  • Pinker, Steven. 1997. How the mind works. New York: Norton.
  • Silva, Augusto Soares da (2003) ‘Image schemas and category coherence: the Case of the Portuguese Verb deixar’. In Cognitive Approaches to Lexical Semantics, Cuyckens & Dirve & Taylor (eds.), 281–322.
  • Sweetser, Eve (1982) ‘A proposal for uniting deontic and epistemic modals. In Proceedings of the Eighth Annual Meeting of the Berkeley Linguistics Society. Berkeley, California: Berkeley Linguistics Society.
  • Sweetser, Eve (1984) ‘Semantic structure and semantic change: A cognitive linguistic study of modality, perception, speech acts, and logical relations. Doctoral dissertation, University of California, Berkeley.
  • Talmy, Leonard (1976a) ‘Semantic causative types’ In Shibatani (ed.), Syntax and semantics (vol 6) : The grammar of causative constructions. New York: Academic Press.
  • Talmy, Leonard (1981) ‘Force Dynamics’. Paper presented at conference on Language and Mental Imagery. May 1981, University of California, Berkeley.
  • Talmy, Leonard (1985b) ‘Force Dynamics as a generalization over causative’ In Georgetown University Round Table on Languages and Linguistics, 67–85.
  • Vandenberghe, Wim (2002) ‘Instigative Setting-Constructions: Force Dynamic Research on ‘New’ Types of Agency’ In Leuvense Bijdragen, 90, 4, 365–390.

External links[edit]

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