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Ayers J. — Neurotechnology for biomimetic robots
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Íàçâàíèå: Neurotechnology for biomimetic robots
Àâòîð: Ayers J.
Àííîòàöèÿ: The goal of neurotechnology is to confer the performance advantages of animal systems on robotic machines. Biomimetic robots differ from traditional robots in that they are agile, relatively cheap, and able to deal with real-world environments. The engineering of these robots requires a thorough understanding of the biological systems on which they are based, at both the biomechanical and physiological levels.
This book provides an in-depth overview of the field. The areas covered include myomorphic actuators, which mimic muscle action; neuromorphic sensors, which, like animal sensors, represent sensory modalities such as light, pressure, and motion in a labeled-line code; biomimetic controllers, based on the relatively simple control systems of invertebrate animals; and the autonomous behaviors that are based on an animal’s selection of behaviors from a species-specific behavioral "library." The ultimate goal is to develop a truly autonomous robot, one able to navigate and interact with its environment solely on the basis of sensory feedback without prompting from a human operator.
ßçûê:
Ðóáðèêà: Òåõíîëîãèÿ /
Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö
ed2k: ed2k stats
Ãîä èçäàíèÿ: 2002
Êîëè÷åñòâî ñòðàíèö: 636
Äîáàâëåíà â êàòàëîã: 16.10.2005
Îïåðàöèè: Ïîëîæèòü íà ïîëêó |
Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
Ïðåäìåòíûé óêàçàòåëü
Flow, laminar 28 490
Flow, optic 589—590
Flow, velocity of 26 581
Fluid media 564
Fluorescence and nose device 104 106 108
Fluorescence and plume tracking 560
Flying robots see "Entomopter" "Flight" "Hawkmoths" "Landings" "RoboFly"
Folding, automatic 475
Foot pads 494
Foot trajectory 192 202
Force magnitude ratios 228
Force sensors 14—22
Force(s) see also "Lift"
Force(s) and payload 266
Force(s) and pectoral fins 328
Force(s) and posture 407—408
Force(s) and stance control 410
Force(s), Aerodynamic 469—471
Force(s), ground-related 355 408 410 428—429
Force(s), hydrodynamic 328 338—340
Force(s), lateral 266
Force(s), linear graded 242
Force(s), propulsive 243—244
Force(s), reversal 360
Force, and muscle, and pull-in voltage 176 181—182
Force, and muscle, and stimulation level 145
Force, and muscle, and transmission system 147
Force, and muscle, contraction grading 244
Force, and muscle, impedance 143—144 147
Force, and muscle, lumped parameter model 144
Force, and muscle, polymeric 160—161
Force, and muscle, vs. length 150 161 181—182
Force-field 9 226
Force-field primitives 227—229
Force-scaling 190
Free gait 385
Freedom, degrees of, and Bass II 333
Freedom, degrees of, and cockroaches 353 365—367
Freedom, degrees of, and flight 459
Freedom, degrees of, and joint angles 408
Freedom, degrees of, and legged robots 402—405 407 409 421
Freedom, degrees of, and motor primitives 226 230
Freedom, degrees of, and posture 407
Freedom, degrees of, and Raibert model 380n3
Freedom, degrees of, angular 365—367
Freedom, degrees of, counterbalancing 333
Freedom, degrees of, in quadruped 192 193 195
Frequency(ies) and crickets 515 534 535
Frequency(ies) and dolphin robot 322—323
Frequency(ies) and indoor navigation 495
Frequency(ies) and motion 189 190 191 195 201
Frequency(ies) and pectoral fins 327—328
Frequency(ies) and quadruped, and direction 190 197 201
Frequency(ies) and quadruped, and resonance 189 191 195
Frequency(ies) and wing-beat 453 455 464 490
Frequency(ies), eigen-value 496
Frequency-modulated wave 482 484 496 499
Friction and insect flight 490
Friction and quadruped 192 197
Friction and scorpion robot 429 434
Friction and snake robots 274 275 276
Frogs 227 229 230 232 234
Fruit flies 526 595—596 see "Sensory
Fuzzy logic 80 332 334
Gaits see also "Locomotion"
Gaits in nature 263
Gaits of insects 353 358 384—385 395
Gaits of mesoscale quadruped 191 193—194
Gaits of scorpion 427—428
Gaits of snakes 273—275 277—282
Gaits of underwater robots 127—133
Gaits, closed-loop control 266
Gaits, free 385
Gaits, maintenance of 241
Gaits, Raibert-style control 368
Gaits, tetrapod 384 395
Gaits, tripod 353 384—385 395 409 411
Gaits, trot 191 193—194
Gantry, robotic 606—608
Gates 80 241
Gaussian function 58
Gaussian mask 59
Gear ratios in legged robots 403 422
Gear ratios in vision robot 49 50—51
Gears 320
Generator potentials 6
Genetic algorithms, crossover 212—213 215 217 219
Genetic algorithms, encoding 209
Genetic algorithms, fitness 210 214—216
Genetic algorithms, initial population 209—210
Genetic algorithms, mutation 213 215 217 219
Genetic algorithms, reproduction 211—212 215 217—219
Genetic algorithms, schemata 216—220
Gilbert multiplier 40—41
Gimbals 335
Global positioning systems (GPS) 495
Goals, achievement 255
Goals, direction 4
Gold 14—15 25
Gradients and homing 527—530
Gradients and plume tracking 557 563
Gradients of descent 527—530
Gradients, muscles contraction 244
Gravity and Bass III 340
Gravity and underwater robots 243 244 245 340
Gravity on Mars 501
Gravity, center of 340 526 528
grooming 236
Ground contact 394 422 428—429
Ground reaction force 355 410
Ground, image of 601—604
Gyroscopes 70
Halteres 574 585—586 589
Hawkmoths, and Entomopter 482 484
Hawkmoths, flight in 453—454 457—463
Hawkmoths, flight in, computer-controlled 463—466
Head stage box 106
Heading angle 305—306 540 542 558
Headwind 595—596
Healing, self- 183
Heat 183 see
Height and horizontal flight 600—604
Height and underwater robot 248 252
Height and walking 358 391
Height of lobster thorax 252
Heterarchies see "Biomechanical primitives"
Hexapod robots 361 402 see
Hidden-state aliasing 423—424
Homing in Entomopter 495
Homing in robot 520—524
Homing, analog 518 520—524 526
Homing, average landmark vector 517 519—527 528 531
Homing, gradient descent 527—530
Homing, neural models 524—530
Homing, pattern role 517 527—528
Homing, snapshot model 519 524—525 526 527
Homing, template vs. parameter 524—531
Hooke's law 360—361
Hopping robots 368 378
Horizontal motion 34 600—604
hovering 326 331—332 502
Hybrids and oscillation 360
Hybrids in bipedal locomotion 364—365
Hybrids, behavior acts 248—249
Hybrids, controller 267
Hydrodynamics and lamprey robot 287 291—292
Hydrodynamics, pectoral fins 327—328 337—339
Hypotheses, testing 565
Hysteresis 29 190
Image points 75
Image, retinal 74 594—595
Imagery see "Homing"
Impedance and human beings 148
Impedance and muscle 143—145 147—148
Impedance, polymeric 161—162 168
Inchworm robot 167—168
Induced power 490
Inertia see also "Visual inertial feedback"
Inertia and Entomopter 486—487
Inertia and legged robot 412
Inertia and miniature aircraft 65
Inertia and muscle 146 148
Inertia and quadruped 196
Inertia and RoboFly 473 477
Infrared 281
Insect-like robots 163—166 266 267—268 see "Walking"
Insects and direction 513
Insects, flight 453—457 593 see
Insects, gaits 353 358 384 395 427
Insects, head and abdomen 463
Insects, homing 517
Insects, leg coordination 358 451—453
Insects, lift capacity 488—489
Insects, navigation 519—520
Insects, vision 593 see "Sensory
Insulation 133
Integrate-and-fire circuits 91
Ionic conductance 6
Jackscrew system 242
Jedelsky profile 489
Joints and leg control 388 391 392
Joints and pneumatic system 406
Joints from force field primitives 227—229 232
Joints in animals 176
Joints in dolphin robots 310—313 316—318
Joints in scorpion robot 433—439 443
Joints in serpentine robot 166—167
Joints in snakes 283
Joints, angles of 391 392 408 410 432
Joints, angular velocity 391 392 433—436 437
Joints, body-coxa 406
Joints, rotary 263
Joints, stiffness 176
juggling 358—359 369
Jumping 414
Kineses 255
Koala robot 544—548
Lamprey robots, components 288—291
Lamprey robots, controller 287 359
Lamprey robots, hydrodynamics 291—292
Lamprey robots, supervised autonomy 293—295
Lamprey robots, system integration 292—293
Lampreys 264—265 285—288 289
Land mines 13—14 106 108 111
Landings of aerial vehicles 503 606—608
Landings of insects 35 598—605
landmarks 517 519—524 527—530
Large monopolar cells (LMCs) 33—34
Laser 459—461
Laser-induced fluorescence 560
Lead-lag motion 326 327 330 337
Leading-edge vortex 488—490 492
Learning as design factor 420
Learning, genetic 208—213
Learning, motor 227—231 231—236
Legged robots see also "Cockroach robot" "RHex" "Scorpion "Stick
Legged robots, control 405—412 413—415
Legged robots, design 401—405 414
Legged robots, development 401—405 414
Legged robots, future 412—413
Legged robots, legs 421 422—423 426—427
legs see "Limbs"
Length and joint coordination 436—439
Length of landmarks 528—529
Length of legs 361 372 395—396 436—439
Length of muscle 150 161 181—182 410
Length of switches 17—19 20
Length of wings 490
Length vs. force 150 161 181—182
Lens diameter 33
Lift and fins 303
Lift and leg weight 422
Lift and pneumatics 491
Lift and velocity 476
Lift and wings 263 267 470 472
Lift for multimodic robot 483
Lift in Entomopter 482 484 488—493 502
Lift in hawkmoth 459
Lift of insects 488—489
Lift, up- and downstroke 490—491
Liftoff, of leg 368 372
Light 39 77—78
Light, sensing 93
Light-emitting diodes (LEDs) and optomotor control 43
Light-emitting diodes (LEDs) in oculomotor system 84—86
Light-emitting diodes (LEDs) in olfaction system 106 108
Limb assemblies 127—130
Limb motions and force-field primitives 228
Limb motions in mesoscale quadruped 189 192
Limb motions of cockroaches 140
Limb motions, closed-path motion 192
Limb motions, liftoff 368 372
Limb motions, underwater 8
Limb motions, wiping 227 230 232 234
Limb positions and phase difference 372
Limb positions in bipedal model 377—378
Limb positions in climbing 408
Limb positions in stance and swing 387—388
Limb positions, pro- and retraction 361 372 377 387
Limbs see also "Limb positions"
Limbs and distributed controller 266
Limbs of cockroach robot 354
Limbs of cricket robot 414 550
Limbs of Entomopter 493—495
Limbs of stick insect 389
Limbs, coordination 266 353—355 385—388 409
Limbs, depression of 248
Limbs, foot trajectory 192 202
Limbs, force fields 226
Limbs, front 412
Limbs, inner vs. outer 397
Limbs, length 361 372 395—396 436—439
Limbs, mechatronics 421—426
Limbs, modes 371 379 385—394
Limbs, positions 361 372 377—378 387—388
Limbs, protraction 354 361 367 370
Limbs, relationships between 361—362
Limbs, weight/lift capacity 422
Line, perception of 87 91
Links, networks of 80—82
Linux 426
Load and motor controller 236
Load and muscle 143—144
Lobster robots 242
Lobster robots and undulation 245
Lobster robots, actuators 243—245
Lobster robots, backward walking 245
Lobster robots, behaviors 251—257
Lobster robots, chemo-orientation 556—564 567
Lobster robots, controller 245—249
Lobster robots, posture 134 248—249
Lobster robots, reverse engineering 252
Lobster robots, sensors 250—251
Lobster robots, sonar 256
Lobsters and direction 246—248 558
Lobsters and water currents 134 249—250
Lobsters, odor tracking 515 554 556—559
Lobsters, reverse engineering 13—14 134 245 249
Lobula-lobular plate complex 34
Local motion detectors (LMDs) 61—63 70 see
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