| 1X component |
8.110
|
| Abduction |
11.4.1
|
| Absolute |
|
| - acceleration |
2.2.17
|
| - motion |
2.2.2
|
| - stability |
10.11
|
| - velocity |
2.2.10
|
| Absorber |
4.3.9
|
| Acceleration |
2.2.14
|
| - due to gravity |
3.5.71
|
| Acceleration, |
|
| absolute |
2.2.17
|
| angular |
2.2.22
|
| centripetal |
2.2.20
|
| Coriolis |
2.2.21
|
| frame |
2.2.19
|
| instantaneous centre of |
2.3.6
|
| normal |
2.2.15
|
| relative |
2.2.18
|
| tangential |
2.2.16
|
| transportation |
2.2.19
|
| Accelerometer |
4.3.17
|
| Acceptance region |
8.1
|
| Accommodation, |
|
| active |
5.5.4
|
| passive |
5.5.5
|
| Accuracy |
4.2.1
|
| Accuracy, |
|
| playback |
5.3.23
|
| positional |
5.3.22
|
| Ackermann principle |
14.4.2
|
| Action potential |
11.2.1
|
| Activation |
11.2.2
|
| Active |
|
| - accommodation |
5.5.4
|
| - device |
6.18
|
| - flank |
12.1.52
|
| - force |
3.2.4
|
| - material |
13.2.7
|
| - redundancy |
13.3.19
|
| - stretching |
11.2.59
|
| - structure |
13.2.7
|
| - system |
6.18
|
| Actuating |
13.1
|
| - signal |
4.1.8
|
| - signal ratio |
4.1.10
|
| Actuation, |
13.2.1
|
| intelligent |
13.2.2
|
| Actuator |
1.2.24
|
| Actuator, compliant |
16.7
|
| Adaptive |
|
| - behaviour |
13.3.36
|
| - control |
5.4.2
|
| - machine |
13.2.6
|
| - system |
13.2.16
|
| Addendum modification |
12.3.4
|
| - coefficient |
12.3.5
|
| Addendum, |
12.1.37
|
| Working |
12.2.17
|
| Adduction |
11.4.2
|
| Adjustable |
|
| - mechanism |
1.3.28
|
| - structure |
13.2.15
|
| Aero-derivative |
8.2
|
| Aerodynamic whirl |
8.106
|
| Agent, |
14.5.33
|
| forwarding |
14.5.34
|
| Aggregate |
7.1
|
| Aggregate, machine |
7.2
|
| Agonistic muscle |
11.2.35
|
| AGV |
14.4.23
|
| Air container |
14.5.21
|
| Alford force |
8.27
|
| Algorithm, evolutionary |
13.3.6
|
| Aliasing |
9.1
|
| Alignment |
8.3
|
| All pass data |
8.15
|
| Allometry |
11.1.1
|
| Almost-periodic vibration |
9.113
|
| Alternate lay |
14.2.54
|
| Alternating load |
3.2.64
|
| AM |
8.40
|
| Amble |
11.4.43
|
| Amphiarthrosis |
11.3.1
|
| Amplitude |
3.9.7
|
| - modulation |
8.40
|
| - resonant frequency |
9.56
|
| - spectrum plot |
8.49
|
| Amplitude, |
|
| complex, (of harmonic vibration) |
9.2
|
| Amplitude-frequency characteristic |
9.19
|
| Amplitude-phase (-freq.) characteristic |
9.20
|
| Analysis, kinematic |
2.1.2
|
| Analysis, mechanism |
0.5
|
| Analyzer, real time |
8.4
|
| Anatomical cross-sectional area of muscle |
11.2.36
|
| Android |
5.1.3
|
| Angle |
|
| - of deformation |
3.5.22
|
| - of friction |
3.5.51
|
| - of rotation |
2.2.28
|
| - of torsion |
3.5.21
|
| - of twist |
3.5.21
|
| Angle, |
|
| attitude |
8.5
|
| camber |
14.4.4
|
| caster |
14.4.5
|
| fleet |
14.2.57
|
| helix |
12.1.72
|
| lead |
12.1.71
|
| loss |
14.3.6
|
| phase |
2.2.49
|
| pitch cone |
12.4.2
|
| pressure (7) |
7.3
|
| pressure (12) |
12.2.8
|
| reference cone |
12.4.4
|
| root cone |
12.4.6
|
| rotor attitude |
8.67
|
| rotor position |
8.67
|
| shaft |
12.2.10
|
| slip |
14.4.9
|
| spiral |
12.4.17
|
| tip cone |
12.4.8
|
| transmission |
7.4
|
| transverse |
12.2.31
|
| Angular |
|
| - acceleration |
2.2.22
|
| - bevel gear pair |
12.4.24
|
| - displacement |
2.2.8
|
| - frequency |
9.57
|
| - mechanical impedance |
7.19
|
| - momentum |
3.3.4
|
| - pitch |
12.1.64
|
| - velocity |
2.2.13
|
| Anguilliform locomotion |
11.4.28
|
| Anisotropic rotor |
8.66
|
| Anisotropicly supported rotor |
8.66
|
| Anisotropy |
3.5.10
|
| Annulus |
1.1.27
|
| Antagonistic muscle |
11.2.37
|
| Anterior |
11.5.1
|
| Anthropometric |
11.1.2
|
| Anthropomorphic robot |
5.1.4
|
| Antinode |
3.9.33
|
| Anti-phase vibrations |
9.124
|
| Antiresonance |
9.3
|
| Anti-swirl |
8.6
|
| Apedal locomotion |
11.4.29
|
| Aperiodic motion |
2.2.47
|
| Apex, reference cone |
12.4.10
|
| APHT |
8.7
|
| Aponeurosis |
11.3.2
|
| Apparent motion |
3.3.7
|
| Applied force |
3.2.4
|
| Approach, mechatronic |
13.1.1
|
| Aquatic locomotion |
11.4.30
|
| Arboreal locomotion |
11.4.31
|
| Arch |
3.6.10
|
| Archimedean worm |
12.5.20
|
| Architecture of mechatronical system |
13.2.17
|
| Argand’s characteristic |
9.20
|
| Arm |
5.2.4
|
| Arm, moment |
3.2.36
|
| Arms, grappler |
14.2.14
|
| Articulated vehicle |
14.4.19
|
| Artificial intelligence (5) |
5.5.15
|
| Artificial intelligence (13) |
13.3.10
|
| Artificial intelligence functions |
13.3.9
|
| ASC |
14.2.28
|
| Assur group |
1.3.12
|
| Asymmetrical gait |
11.4.14
|
| Asymptotic stability |
10.12
|
| Attack, angle of |
11.4.3
|
| Attenuation |
4.1.25
|
| Attitude angle |
8.5
|
| Attitude angle, rotor |
8.67
|
| Attraction, |
|
| basin of |
9.10
|
| domain of |
9.10
|
| Attractor |
9.4
|
| Attractor, |
|
| chaotic |
9.5
|
| periodic |
9.6
|
| point |
9.7
|
| strange |
9.5
|
| Automatic |
|
| - control system |
4.3.4
|
| - controller |
4.3.2
|
| - controller system |
13.2.19
|
| Autonomous system |
7.32
|
| Autoparametric system |
7.33
|
| Auto (power) spectrum |
9.99
|
| Auxotonic contraction |
11.2.9
|
| Avian locomotion |
11.4.32
|
| Average circumferential velocity, fluid |
8.25
|
| Axes, |
|
| major |
5.3.9
|
| minor |
5.3.10
|
| primary |
5.3.9
|
| principal |
11.5.2
|
| secondary |
5.3.10
|
| Axial |
|
| - direction |
8.18
|
| - force |
3.2.24
|
| - module |
12.1.75
|
| - pitch |
12.1.74
|
| - plane |
12.2.26
|
| - tension |
3.5.34
|
| - thread profile |
12.1.77
|
| - tooth profile |
12.1.77
|
| Axis |
|
| - drift |
16.26
|
| - of a gear pair, instantaneous |
12.2.33
|
| - of a meshing |
12.2.34
|
| - of rotation |
2.3.2
|
| Axis, |
|
| central |
3.7.19
|
| compliant |
16.25
|
| elastic |
3.5.41
|
| frontal |
11.5.5
|
| gear |
12.2.35
|
| longitudinal |
11.5.3
|
| moment of a force about |
3.2.34
|
| neutral |
3.5.42
|
| principal, of inertia |
3.7.11
|
| sagittal |
11.5.4
|
| screw |
2.3.4
|
| transverse |
11.5.5
|
| worm |
12.2.36
|
| Axle, vehicle |
14.4.1
|
| Axode of a gear |
12.2.37
|
| Axode, |
2.3.11
|
| fixed |
2.3.12
|
| moving |
2.3.13
|
| Axoidal surface of a gear |
12.2.37
|
| Azimuth |
5.3.19
|
| Back cone |
12.4.9
|
| Back cone, reference |
12.4.9
|
| Backbone curve |
9.23
|
| Backlash |
1.2.26
|
| Backlash, circumferential |
12.2.20
|
| Backreach |
14.2.21
|
| Backward |
|
| - precession |
8.55
|
| - whip |
8.55
|
| - whirl |
8.55
|
| Balance |
11.1.3
|
| - resonance speed* |
8.78
|
| Balance, |
|
| dynamic |
3.2.56
|
| static |
3.2.55
|
| Balanced mechanism |
3.2.57
|
| Balancing |
3.2.54
|
| Balancing (of a rotor) |
8.8
|
| Ball-and-socket joint |
11.3.16
|
| Ball point |
2.3.23
|
| Band, dead |
4.2.9
|
| Bandwidth |
4.2.19
|
| Bandwidth, |
|
| effective |
9.8
|
| nominal |
9.9
|
| Band-pass filter |
9.46
|
| Bar (1) |
1.1.6
|
| Bar (6) |
3.6.6
|
| Bar, |
|
| buckling of |
3.5.25
|
| curved |
3.6.9
|
| equivalent buckling length of |
3.5.26
|
| slenderness ratio of |
3.5.27
|
| tow |
14.4.22
|
| Barge |
14.5.37
|
| Barrel cam |
1.1.18
|
| Base |
5.2.1
|
| - circle |
12.1.39
|
| - coordinate system |
5.3.3
|
| - cylinder |
12.1.40
|
| - diameter |
12.1.48
|
| - of support |
11.4.58
|
| - pitch |
12.1.67
|
| - tangent length |
12.1.88
|
| Baseline spectrum (of a machine) |
9.100
|
| Basic |
|
| - rack |
12.1.24
|
| - rack tooth profile |
12.1.23
|
| Basin |
|
| - boundary |
9.16
|
| - of attraction |
9.10
|
| Beam, |
3.6.13
|
| cantilever |
3.6.16
|
| continuous |
3.6.15
|
| deflection of |
3.5.23
|
| lateral buckling of |
3.5.28
|
| simply-supported |
3.6.14
|
| span of |
3.6.17
|
| Bearing |
1.1.48
|
| - eccentricity |
8.21
|
| - force |
3.2.28
|
| Bearing, |
|
| fluid-film lubricated |
8.9
|
| rolling element |
8.10
|
| Beat |
3.9.23
|
| Behaviour, |
|
| adaptive |
13.3.3
|
| goal-oriented |
13.3.2
|
| intelligent |
13.3.2
|
| Belt |
1.1.40
|
| Belt tensioner |
14.3.3
|
| Bending |
3.5.37
|
| - moment |
3.2.40
|
| - stiffness |
3.5.14
|
| Bevel gear |
1.1.31
|
| Bevel gear pair |
12.4.22
|
| Bias |
4.1.4
|
| - error |
9.40
|
| BIBO stability |
10.13
|
| Bicycle model |
14.4.16
|
| Bicipital muscle |
11.2.38
|
| Biequivalent cylindrical gear |
12.4.35
|
| Bifurcation, |
9.11
|
| global |
9.12
|
| Hopf |
9.13
|
| local |
9.14
|
| saddle-node |
9.15
|
| Bilateral |
|
| - constraint |
3.7.22
|
| - manipulator |
5.1.16
|
| Bingham-plastic fluid |
11.1.18
|
| Biomechanics |
11.1.4
|
| Biomimetics (11) |
11.1.5
|
| Biomimetics (13) |
13.1.2
|
| Biped |
11.4.4
|
| Bipenniform muscle |
11.2.39
|
| Bistable compliant mechanism |
16.12
|
| Blade passing frequency |
8.28
|
| Block, sliding |
1.1.11
|
| Bode |
|
| - diagram |
9.78
|
| - plot (8) |
8.43
|
| - plot (9) |
9.78
|
| Body force |
3.2.20
|
| Body structure |
16.1
|
| Body, |
|
| compliant |
16.2
|
| elastic |
3.6.2
|
| heterogeneous |
3.6.5
|
| homogeneous |
3.6.3
|
| isotropic |
3.6.4
|
| gear |
12.1.26
|
| mass of |
3.7.3
|
| polar moment of inertia of |
3.7.9
|
| rigid |
3.6.1
|
| swap |
14.5.20
|
| Bogie carriage |
14.2.6
|
| Bone |
11.1.6
|
| Boom, |
14.2.3
|
| double |
14.2.25
|
| Bottom clearance |
12.2.19
|
| Bound, |
11.4.5
|
| half |
11.4.6
|
| Boundary conditions |
7.9
|
| Boundary, basin |
9.16
|
| Bow |
8.11
|
| Box girder |
14.2.1
|
| Bresse normal circle |
2.3.17
|
| Buckling |
|
| - length, equivalent, of a bar |
3.5.26
|
| - of a bar |
3.5.25
|
| - of a plate |
3.5.25
|
| Buckling, lateral, of a beam |
3.5.28
|
| Bulk solid cargo |
14.1.7
|
| Burmester point |
2.3.34
|
| Bursa |
11.3.3
|
| Buoyancy point |
14.1.24
|
| Calibration mass |
8.38
|
| Cam |
1.1.15
|
| - follower |
1.1.21
|
| - mechanism |
1.3.39
|
| - pair |
1.2.17
|
| Cam, |
|
| barrel |
1.1.18
|
| cylindrical |
1.1.18
|
| disc |
1.1.16
|
| face |
1.1.17
|
| spherical |
1.1.19
|
| yoke |
1.1.20
|
| Camber angle |
14.4.4
|
| Campbell |
|
| - diagram (8) |
8.44
|
| - diagram (9) |
9.79
|
| - plot (8) |
8.44
|
| - plot (9) |
9.79
|
| Camshaft |
1.1.23
|
| Canonical variable |
3.3.5
|
| Cantilever beam |
3.6.16
|
| Capillary |
11.1.7
|
| Car, neutral |
14.4.14
|
| Carangiform locomotion |
11.4.33
|
| Cardan |
|
| - circles |
2.3.10
|
| - join |
1.2.18
|
| - shaft |
1.1.45
|
| Cardiac muscle |
11.2.40
|
| Cardinal planes |
11.5.22
|
| Cargo, |
14.1.5
|
| general |
14.1.6
|
| bulk solid |
14.1.7
|
| Carriage, bogie |
14.2.6
|
| Carrier, |
14.5.35
|
| planet |
12.6.9
|
| straddle |
14.2.29
|
| Cartesian coordinate robot |
5.3.6
|
| Cartilage, |
11.3.4
|
| elastic |
11.3.5
|
| fibro- |
11.3.6
|
| hyaline |
11.3.7
|
| Cartwheel hinge |
16.30
|
| Cascade |
|
| - diagram |
8.44
|
| - plot (8) |
8.44
|
| - plot (9) |
9.67
|
| - spectrum plot |
8.45
|
| Case, load |
14.2.36
|
| Casing expansion |
8.23
|
| Caster angle |
14.4.5
|
| Casting, corner |
14.2.15
|
| Catastrophe theory |
9.105
|
| Caudal |
11.5.6
|
| Cell |
11.1.8
|
| Center frequency |
9.58
|
| Centerline, |
|
| geometric |
8.12
|
| mass |
8.13
|
| Central |
|
| - axis |
3.7.19
|
| - ellipsoid of inertia |
3.7.17
|
| - force |
3.2.14
|
| - impact |
3.5.56
|
| - motion |
2.2.32
|
| Centre |
|
| - of gravity |
3.7.5
|
| - of mass |
3.7.4
|
| - of mass, principle of motion of |
3.4.7
|
| - of percussion |
3.5.67
|
| - of twist |
3.5.40
|
| - point |
2.3.32
|
| Centre, |
|
| flexural |
3.5.39
|
| inflection |
2.3.20
|
| instantaneous |
2.3.3
|
| instantaneous, of velocity |
2.3.3
|
| shear |
3.5.39
|
| Centre distance |
12.2.1
|
| - modification coefficient |
12.3.6
|
| Centre distance, reference |
12.2.2
|
| Centre-point curve |
2.3.33
|
| Centrifugal force |
3.2.10
|
| Centring-point curve |
2.3.22
|
| Centripetal |
|
| - acceleration |
2.2.20
|
| - force |
3.2.8
|
| Centrode |
2.3.7
|
| - tangent |
2.3.15
|
| Centrode, |
|
| fixed |
2.3.8
|
| moving |
2.3.9
|
| Centroid |
3.7.18
|
| Cepstrum |
9.17
|
| Chain, |
1.1.42
|
| closed kinematic |
1.3.6
|
| kinematic |
1.3.5
|
| logistical |
14.5.1
|
| open kinematic |
1.3.7
|
| supply |
14.5.1
|
| Chaos |
9.18
|
| Chaotic |
|
| - attractor |
9.5
|
| - motion |
9.70
|
| Characteristic mode |
3.9.28
|
| Characteristic, |
|
| amplitude-frequency |
9.19
|
| amplitude-phase (-frequency) |
9.20
|
| Argand’s |
9.20
|
| drive |
7.5
|
| dynamic drive |
7.6
|
| friction |
7.8
|
| phase-frequency |
9.21
|
| static drive |
7.7
|
| Chitin |
11.1.9
|
| Chord, constant |
12.2.39
|
| Chute |
14.2.23
|
| Circle point |
2.3.30
|
| Circle, |
|
| base |
12.1.39
|
| Bresse normal |
2.3.17
|
| inflection |
2.3.18
|
| pitch |
12.2.24
|
| reference |
12.1.41
|
| root |
12.1.45
|
| tip |
12.1.47
|
| Circle-point curve |
2.3.31
|
| Circles, cardan |
2.3.10
|
| Circular |
|
| - frequency |
9.57
|
| - helical cylindrical gear pair |
12.3.18
|
| - pitch |
12.1.65
|
| - tooth |
12.1.62
|
| Circumferential |
|
| - backlash |
12.2.20
|
| - velocity, fluid average |
8.25
|
| Clamshell grab |
14.2.12
|
| Class, |
|
| duty |
14.2.35
|
| load spectrum |
14.2.41
|
| Clearance, |
1.2.26
|
| bottom |
12.2.19
|
| Click |
1.1.49
|
| Closed kinematic chain |
1.3.6
|
| Closed-loop |
|
| - control |
4.1.29
|
| - control system |
4.3.4
|
| - harmonic response |
4.1.11
|
| Close-packed position |
11.3.28
|
| Closure of a kinematic pair |
1.2.6
|
| Clutch |
1.2.22
|
| Coaxial surface |
12.1.32
|
| Coefficient |
|
| - of drag |
11.4.10
|
| - of lift |
11.4.26
|
| - of non-uniformity of motion |
2.2.44
|
| - of restitution |
3.5.66
|
| - of static friction |
3.5.50
|
| Coefficient, |
|
| addendum modification |
12.3.5
|
| centre distance modification |
12.3.6
|
| damping |
3.9.43
|
| direct influence* |
8.32
|
| loss |
9.22
|
| understeer |
14.4.12
|
| Cog |
12.1.93
|
| Cognate mechanism |
1.3.4
|
| Cognition system |
13.2.18
|
| Coherence |
11.1.10
|
| Coherence, mechanical |
16.17
|
| Collagen |
11.1.11
|
| Collateral |
11.5.12
|
| - ligaments |
11.3.24
|
| Collo module |
14.5.13
|
| Column |
3.6.8
|
| Combination |
|
| - resonance |
9.86
|
| - tones |
9.106
|
| Combination, load |
14.2.36
|
| Combined transport |
14.5.9
|
| Combined vibration |
9.114
|
| Command |
4.1.5
|
| Common line of teeth contact |
12.2.13
|
| Compensation, run-out |
8.70
|
| Complex |
|
| - amplitude (of harmonic vibration) |
9.2
|
| - dynamic stiffness |
9.104
|
| - excitation |
3.7.41
|
| - response |
3.7.42
|
| Compliance, |
3.5.8
|
| concentrated |
16.13
|
| distributed |
16.14
|
| lumped |
16.13
|
| remote centre |
5.2.13
|
| reversible |
16.16
|
| variable |
16.15
|
| Compliant |
|
| - actuator |
16.7
|
| - axis |
16.25
|
| - body |
16.2
|
| - body, segment of a |
16.4
|
| - element |
16.3
|
| - joint |
16.5
|
| - joint, mobility of a |
16.6
|
| - link |
16.2
|
| - mechanism |
16.8
|
| - mechanism, bistable |
16.12
|
| - mechanism, fully |
16.9
|
| - mechanism, hybrid |
16.10
|
| - mechanism, monolithic |
16.11
|
| - mechanism, partially |
16.10
|
| Component, |
|
| Fourier |
3.9.9
|
| 1X |
8.110
|
| contractile |
11.2.3
|
| dislocating |
11.2.4
|
| n X |
8.110
|
| parallel elastic |
11.2.5
|
| rotary |
11.2.6
|
| series elastic |
11.2.7
|
| stabilizing |
11.2.8
|
| Compound pendulum |
3.8.5
|
| Compression |
3.5.35
|
| - period |
3.5.64
|
| - wave |
3.9.51
|
| Compressive force |
3.2.22
|
| Concealed motion |
3.3.8
|
| Concentrated compliance |
16.13
|
| Concentrated force |
3.2.18
|
| Concentric contraction |
11.2.10
|
| Concurrent force system |
3.2.50
|
| Condition, |
|
| initial |
3.3.10
|
| boundary |
7.9
|
| Condyloid joint |
11.3.17
|
| Condylus |
11.3.8
|
| Cone |
|
| - distance |
12.4.11
|
| - distance, reference |
12.4.11
|
| - of friction |
3.5.52
|
| Cone, |
|
| back |
12.4.9
|
| generating |
12.1.20
|
| pitch |
12.4.1
|
| reference |
12.4.3
|
| reference back |
12.4.9
|
| root |
12.4.5
|
| tip |
12.4.7
|
| Configuration |
|
| - equilibrium |
3.7.34
|
| - singular |
5.3.28
|
| Conical gear |
1.1.31
|
| Conjugate surface |
12.2.23
|
| Connecting rod |
1.1.14
|
| Connective tissue |
11.1.41
|
| Connectivity of a kinematic pair |
1.2.5
|
| Conservation |
|
| - of energy, principle of |
3.4.2
|
| - of moment of momentum, princ. Of |
3.4.6
|
| - of momentum, principle of |
3.4.4
|
| Conservative |
|
| - field of force |
3.2.71
|
| - force |
3.2.72
|
| - system |
7.34
|
| Consignee |
14.5.31
|
| Constant |
|
| - bandwidth filter |
9.47
|
| - chord |
12.2.39
|
| - chord height |
12.2.40
|
| - percentage bandwidth filter |
9.51
|
| Constant, time |
6.13
|
| Constraint (1) |
1.3.13
|
| Constraint (3) |
3.7.20
|
| Constraint, |
|
| bilateral |
3.7.22
|
| differential |
3.7.24
|
| geometric |
3.7.23
|
| holonomic |
3.7.27
|
| non-holonomic |
3.7.28
|
| rheonomic |
3.7.25
|
| sceleronomic |
3.7.26
|
| unilateral |
3.7.21
|
| Contact |
|
| - interval |
11.4.44
|
| - line |
12.2.14
|
| - normal |
12.2.16
|
| - point |
12.2.11
|
| Container, |
14.5.15
|
| air |
14.5.21
|
| land |
14.5.19
|
| maritime |
14.5.16
|
| Continuous |
|
| - beam |
3.6.15
|
| - force |
3.2.19
|
| - load |
3.2.59
|
| - model |
6.31
|
| - system |
3.8.19
|
| Continuous-path control |
5.4.5
|
| Continuum |
3.8.19
|
| Contractile component |
11.2.3
|
| Contraction, |
|
| auxotonic |
11.2.9
|
| concentric |
11.2.10
|
| eccentric |
11.2.11
|
| isokinetic |
11.2.12
|
| isometric |
11.2.13
|
| isotonic |
11.2.14
|
| tetanic |
11.2.15
|
| Contralateral |
11.5.11
|
| Contrate |
|
| - gear |
12.4.20
|
| - gear pair |
12.4.29
|
| Control |
|
| - element |
4.3.1
|
| - parameter |
9.76
|
| - ratio |
4.1.11
|
| - system, automatic |
4.3.4
|
| - system, closed-loop |
4.3.4
|
| - system, feedback |
4.3.4
|
| Control, |
13.1.3
|
| adaptive |
5.4.2
|
| closed-loop |
4.1.29
|
| continuous path |
5.4.5
|
| derivative |
4.1.31
|
| force |
5.4.11
|
| fuzzy |
13.3.4
|
| intelligent |
13.1.5
|
| impedance |
5.4.10
|
| integral |
4.1.32
|
| learning |
5.4.8
|
| open-loop |
4.1.28
|
| point-to-point |
5.4.3
|
| pose-to-pose |
5.4.4
|
| position-force |
5.4.12
|
| proportional |
4.1.30
|
| resolved-motion rate |
5.4.7
|
| sensory |
5.4.9
|
| sequential |
5.4.6
|
| teach |
5.4.1
|
| Controlled variable |
4.1.1
|
| Controller, automatic |
4.3.2
|
| Conveyor |
14.3.1
|
| Convolute |
12.1.8
|
| - worm |
12.5.19
|
| Coordinate |
|
| - system, base |
5.3.3
|
| - system, joint |
5.3.5
|
| - system, relative |
5.3.2
|
| - system, task |
5.3.4
|
| - system, world |
5.3.1
|
| Coordinate, |
|
| cyclic |
3.3.6
|
| cyclic ignorable |
3.3.6
|
| generalized |
6.20
|
| Coplanar |
|
| - force system |
3.2.49
|
| - system |
3.8.13
|
| Core |
14.2.46
|
| Coriolis |
|
| - acceleration |
2.2.21
|
| - force |
3.2.11
|
| Corner casting |
14.2.15
|
| Corner fitting |
14.2.15
|
| Cornering |
14.4.8
|
| - stiffness |
14.4.10
|
| Corresponding flanks |
12.1.55
|
| Coulomb |
|
| - damping |
9.26
|
| - friction |
7.16
|
| Counterpart rack |
12.1.25
|
| Couple |
3.2.37
|
| Couple, |
|
| d’Alembert |
3.2.45
|
| inertia |
3.2.45
|
| moment of |
3.2.38
|
| Coupled dynamic stiffness, cross- |
8.89
|
| Coupled modes |
3.9.30
|
| Coupler |
1.1.9
|
| - curve |
2.3.25
|
| - point |
2.3.24
|
| Coupler-point curve |
2.3.25
|
| Coupling |
1.2.21
|
| Coupling, universal |
1.2.18
|
| Crane, |
|
| gantry |
14.2.19
|
| lemniscate |
14.2.26
|
| level luffing |
14.2.24
|
| Topliss |
14.2.27
|
| Cranial |
11.5.7
|
| Crank |
1.1.7
|
| Crank-and-rocker mechanism |
1.3.32
|
| Criteria of stability |
10.1
|
| Critical |
|
| - damping |
3.9.45
|
| - force |
3.2.26
|
| - load |
3.2.68
|
| Critical speed |
3.9.36
|
| - map* |
8.37
|
| - of a rotor |
8.78
|
| - of a vehicle |
14.4.13
|
| - of the second order |
8.79
|
| Cross-axis flexural pivot |
16.29
|
| Cross bridge |
11.2.16
|
| Cross-flexure pivot, single axis |
16.28
|
| Cross lay rope |
14.2.49
|
| Cross receptance |
3.7.33
|
| Cross-strip joint |
16.28
|
| Crossed helical gear pair |
12.5.4
|
| Crosshead |
1.1.13
|
| Crossover, |
|
| gain |
4.1.17
|
| phase |
4.1.18
|
| Cross-coupled dynamic stiffness |
8.89
|
| Crown gear |
12.4.19
|
| Cruciate ligaments |
11.3.25
|
| Cubic of stationary curvature |
2.3.21
|
| Current, eddy |
8.14
|
| Curve, |
|
| backbone |
9.23
|
| centre-point |
2.3.33
|
| centring-point |
2.3.22
|
| circle-point |
2.3.31
|
| coupler |
2.3.25
|
| coupler-point |
2.3.25
|
| pivot-point |
2.3.22
|
| resonance |
9.24
|
| skeleton |
9.23
|
| Curved bar |
3.6.9
|
| Curvilinear tooth |
12.1.60
|
| Cutter tool meshing |
12.2.38
|
| Cycle of movement (of a leg) |
11.4.7
|
| Cycle, |
3.9.5
|
| duty |
14.2.34
|
| limit |
9.25
|
| load |
14.2.34
|
| stability of limit |
10.7
|
| stretch-shortening |
11.2.17
|
| working |
14.2.34
|
| Cyclic |
|
| - coordinate |
3.3.6
|
| - efficiency of a machine |
3.3.27
|
| - ignorable coordinate |
3.3.6
|
| Cycloid |
12.1.1
|
| Cycloidal |
|
| - gear |
12.1.90
|
| - gear pair |
12.3.15
|
| - meshing |
12.1.85
|
| Cylinder, |
|
| base |
12.1.40
|
| pitch |
12.2.25
|
| reference |
12.1.43
|
| root |
12.1.44
|
| tip |
12.1.46
|
| Cylindrical |
|
| - cam |
1.1.18
|
| - coordinate robot |
5.3.6
|
| - gear |
1.1.25
|
| - gear pair |
12.3.12
|
| - non-ruled worm |
12.5.14
|
| - pair |
1.2.14
|
| - ruled worm |
12.5.13
|
| - shell |
3.6.24
|
| Cylindrical worm |
12.5.12
|
| - gear pair |
12.5.8
|
| - ground by cone wheel |
12.5.24
|
| - ground by toroidal wheel |
12.5.25
|
| Cytoskeleton |
11.3.31
|
| d’Alembert |
|
| - couple |
3.2.45
|
| - force |
3.2.9
|
| d’Alembert’s principle |
3.4.10
|
| Damped |
|
| - natural frequency |
9.59
|
| - vibration |
9.115
|
| Damper |
4.3.10
|
| Damping |
3.9.40
|
| - coefficient |
3.9.43
|
| - ratio |
3.9.44
|
| Damping, |
|
| Coulomb |
9.26
|
| critical |
3.9.45
|
| equivalent viscous |
3.9.42
|
| hysteretic |
9.27
|
| negative |
9.28
|
| proportional |
9.29
|
| rate-independent linear |
9.27
|
| structural |
9.30
|
| viscous |
3.9.41
|
| Data, |
|
| all pass |
8.15
|
| direct |
8.15
|
| overall |
8.15
|
| raw |
8.15
|
| reference |
8.16
|
| trend |
8.17
|
| unfiltered |
8.15
|
| Datum plane |
12.1.31
|
| Dead |
|
| - band |
4.2.9
|
| - load |
3.2.61
|
| - point |
2.2.57
|
| Decay |
4.1.26
|
| Decaying vibration |
9.116
|
| Decrement, logarithmic |
3.9.38
|
| Dedendum, |
12.1.38
|
| working |
12.2.18
|
| Deflection |
|
| - of a beam |
3.5.23
|
| - of a plate |
3.5.24
|
| Deformation, |
|
| angle of |
3.5.22
|
| elastic |
3.5.17
|
| isochoric |
11.1.12
|
| plastic |
3.5.18
|
| virtual |
3.5.29
|
| work of |
3.3.22
|
| Degree of freedom |
|
| - of a kinematic chain |
1.3.11
|
| - of a kinematic pair |
1.2.5
|
| - of a mechanical system |
3.7.29
|
| - of a mechanism |
1.3.11
|
| Dekapod |
11.4.8
|
| Delay |
4.1.27
|
| Density |
3.5.1
|
| Density, power spectral |
9.31
|
| Dependent variable |
7.41
|
| Derivative control |
4.1.31
|
| Detent |
1.1.49
|
| Deterministic |
|
| - force |
3.2.32
|
| - system |
7.35
|
| Detuner |
4.3.11
|
| Device, |
6.24
|
| active |
6.18
|
| passive |
6.19
|
| prosthetic |
5.1.20
|
| Diagram, |
|
| Bode |
9.78
|
| Campbell (8) |
8.44
|
| Campbell (9) |
9.79
|
| cascade* |
8.44
|
| Goodman |
14.2.43
|
| waterfall* |
8.44
|
| Diameter, |
|
| base |
12.1.48
|
| pitch |
12.1.49
|
| reference |
12.1.42
|
| Diametral pitch |
12.1.66
|
| Diarthrosis |
11.3.9
|
| Difference, phase (of harmonic vibr.) |
9.96
|
| Differential |
|
| - constraint |
3.7.24
|
| - expansion |
8.24
|
| - gear train |
12.6.6
|
| - mechanism |
1.3.26
|
| Digastric muscle |
11.2.41
|
| Digital filter |
9.48
|
| Dilatant fluid |
11.1.19
|
| Direct |
|
| - data |
8.15
|
| - dynamic stiffness |
8.88
|
| - impact |
3.5.58
|
| - impedance |
7.20
|
| - influence coefficient* |
8.32
|
| - mobility |
3.7.31
|
| - modulation |
8.40
|
| - receptance |
3.7.32
|
| - strain |
3.5.20
|
| - task |
5.5.8
|
| Direction, |
|
| axial |
8.18
|
| radial |
8.18
|
| Discrete |
|
| - Fourier transform |
9.109
|
| - system |
3.8.18
|
| - model |
6.30
|
| Disk (3) |
3.6.23
|
| Disk (8) |
8.19
|
| Disk cam |
1.1.16
|
| Dislocating componenet |
11.2.4
|
| Displacement |
2.2.6
|
| - transducer |
4.3.15
|
| Displacement, |
|
| angular |
2.2.8
|
| relative |
2.2.7
|
| virtual |
3.7.39
|
| Dissipation |
|
| - function |
3.2.76
|
| - function, Rayleigh |
3.2.76
|
| Dissipative force |
3.2.74
|
| Distal (5) |
5.5.7
|
| Distal (11) |
11.5.8
|
| Distance, |
|
| centre |
12.2.1
|
| cone |
12.4.11
|
| reference centre |
12.2.2
|
| reference cone |
12.4.11
|
| Distance over pins |
12.1.94
|
| Distributed |
|
| - compliance |
16.14
|
| - force |
3.2.19
|
| - load |
3.2.59
|
| Distribution problem |
11.2.18
|
| Divergence |
9.32
|
| Divergent vibration |
9.117
|
| Domain of attraction |
9.10
|
| Dorsal |
11.5.9
|
| Double boom |
14.2.25
|
| Double pendulum |
3.8.6
|
| Double-crank mechanism |
1.3.33
|
| Double-enveloping |
|
| - worm gear |
12.5.26
|
| - worm gear pair |
12.5.27
|
| Double-helical |
|
| - gear |
1.1.30
|
| - gear pair |
12.3.14
|
| Double-rocker mechanism |
1.3.35
|
| Double-slider mechanism |
1.3.37
|
| Doubling, period |
9.33
|
| Drag, |
11.4.9
|
| coefficient of |
11.4.10
|
| propulsive |
11.4.11
|
| Drag-link mechanism |
1.3.33
|
| Drift |
4.2.5
|
| Drift, axis |
16.26
|
| Drive |
1.2.25
|
| - characteristic |
7.5
|
| - characteristic, dynamic |
7.6
|
| - characteristic, static |
7.7
|
| - shaft |
1.1.44
|
| Drive, Geneva |
1.3.46
|
| Driven gear |
12.2.7
|
| Driving |
|
| - force |
7.12
|
| - gear |
12.2.6
|
| - moment |
7.12
|
| Driving-point |
|
| - impedance |
7.20
|
| - mobility |
3.7.31
|
| Drop, rod |
8.20
|
| Dry |
|
| - friction |
7.17
|
| - whip |
8.102
|
| Dual transducer |
8.93
|
| Duffing’s equation |
9.36
|
| Duty class |
14.2.35
|
| Duty cycle |
14.2.34
|
| Dwell |
2.2.51
|
| - mechanism |
1.3.25
|
| Dwell, |
|
| instantaneous |
2.2.52
|
| momentary |
2.2.52
|
| Dynamic |
|
| - balance |
3.2.56
|
| - drive characteristic |
7.6
|
| - error band |
4.2.17
|
| - factor (14) |
14.2.37
|
| - factor (7) |
7.11
|
| - load |
3.2.63
|
| - modulus |
9.69
|
| - range |
9.84
|
| - spring constant |
3.7.46
|
| - stability |
10.14
|
| - stiffness |
3.7.46
|
| - viscosity |
11.1.47
|
| - Young’s modulus |
14.3.5
|
| Dynamic stiffness, |
|
| cross-coupled |
8.89
|
| direct |
8.88
|
| quadrature |
8.89
|
| Dynamical system |
7.36
|
| Dynamics |
3.1.1
|
| Eccentric |
|
| - contraction |
11.2.11
|
| - impact |
3.5.57
|
| Eccentricity ratio |
8.22
|
| Eccentricity, bearing |
8.21
|
| Eddy current |
8.14
|
| Effect, |
|
| gyro |
3.5.72
|
| gyroscopic |
3.5.72
|
| scale |
13.3.22
|
| Stribeck |
14.3.16
|
| Effective |
|
| - bandwidth |
9.8
|
| - noise |
9.8
|
| - power |
3.3.25
|
| Efficiency, |
7.10
|
| cyclic, of a machine |
3.3.27
|
| fabric strength |
14.3.4
|
| mechanical |
3.3.26
|
| rope strength |
14.2.56
|
| Eigen-mode |
3.9.28
|
| Eigenvalues, linear |
9.34
|
| Elastic |
|
| - axis |
3.5.41
|
| - body |
3.6.2
|
| - cartilage |
11.3.5
|
| - deformation |
3.5.17
|
| - force |
3.2.17
|
| - foundation |
3.6.32
|
| - hysteresis |
3.5.3
|
| - impact |
3.5.62
|
| - line |
3.5.41
|
| - strain |
3.5.17
|
| - support |
3.6.29
|
| Elasticity |
3.5.2
|
| - factor |
7.11
|
| Elasticity, Young’s modulus of |
3.5.4
|
| Elbow |
5.2.7
|
| Electrical run-out |
8.71
|
| Electromyogram (EMG) |
11.2.19
|
| Element, |
|
| compliant |
16.2
|
| control |
4.3.1
|
| feedback |
4.3.3
|
| Maxwell |
14.3.13
|
| mechanism |
1.1.1
|
| pairing |
1.2.4
|
| Elementary work |
3.3.20
|
| Elevation |
5.3.18
|
| Ellipsoid |
|
| - joint |
11.3.17
|
| - of inertia |
3.7.16
|
| - of inertia, central |
3.7.17
|
| Ellipsoid, |
|
| momental |
3.7.16
|
| Poinsot |
3.7.16
|
| End-effector |
5.2.9
|
| Endoskeleton |
11.3.32
|
| Energy, |
|
| kinetic, of a particle |
3.3.16
|
| kinetic, of a system |
3.3.17
|
| mechanical |
3.3.18
|
| potential, of a particle |
3.3.13
|
| potential, of a system |
3.3.14
|
| principle of |
3.4.1
|
| principle of conservation of |
3.4.2
|
| strain |
3.3.15
|
| Engine |
3.1.3
|
| Envelope, |
|
| limit |
9.35
|
| working |
5.3.1
|
| Enveloping |
|
| - non-ruled worm |
12.5.17
|
| - ruled worm |
12.5.16
|
| - worm |
12.5.15
|
| Epicyclic |
|
| - gear |
1.3.44
|
| - gear train |
1.3.44
|
| Epicycloid |
12.1.2
|
| Equal lay rope |
14.2.48
|
| Equation, |
|
| Duffing’s |
9.36
|
| Hill |
9.37
|
| Mathieu |
9.38
|
| van der Pol |
9.39
|
| Equations of equilibrium |
3.7.38
|
| Equilibrium |
3.2.53
|
| - configuration |
3.7.34
|
| - point |
9.80
|
| Equilibrium, |
|
| equations of |
3.7.38
|
| neutral |
3.7.37
|
| stable |
3.7.35
|
| unstable |
3.7.36
|
| Equivalent |
|
| - bevel gear |
12.4.34
|
| - bevel gear pair |
12.4.32
|
| - buckling length of a bar |
3.5.26
|
| - cylindrical gear |
12.4.33
|
| - cylindrical gear pair |
12.4.31
|
| - force |
3.2.27
|
| - force system |
3.2.46
|
| - mass of a mechanism |
3.7.6
|
| - mechanism |
1.3.3
|
| - moment |
3.2.44
|
| - moment of inertia |
3.7.14
|
| - spur gear |
12.3.19
|
| - viscous damping |
3.9.42
|
| Ergodic process |
3.7.51
|
| Error |
|
| - band, dynamic |
4.2.17
|
| - band, static |
4.2.16
|
| - signal |
4.1.8
|
| - signal ratio |
4.1.10
|
| Error, |
|
| bias |
9.40
|
| offset |
4.2.15
|
| steady-state |
4.2.14
|
| structural |
4.2.11
|
| system |
4.2.10
|
| systematic |
9.40
|
| transient |
4.2.13
|
| Euro pallet |
14.5.11
|
| Evolute |
12.1.4
|
| Evolution |
13.3.5
|
| Evolutionary algorithm |
13.3.6
|
| Excitation |
3.7.40
|
| - force |
9.53
|
| - moment |
9.53
|
| Excitation, |
|
| complex |
3.7.41
|
| extraparametric |
9.41
|
| force |
9.42
|
| kinematic |
9.43
|
| moment |
9.42
|
| parametric |
9.44
|
| Execution system |
13.2.20
|
| Exoskeleton (5) |
5.1.21
|
| Exoskeleton (11) |
11.3.33
|
| Expansion, |
|
| casing |
8.23
|
| differential |
8.24
|
| spindle |
8.24
|
| Extensor |
11.2.20
|
| External |
|
| - force |
3.2.15
|
| - gear |
12.1.86
|
| - gear pair |
12.2.3
|
| Extraparametric |
|
| - excitation |
9.41
|
| - resonance |
9.87
|
| Extremity |
11.1.13
|
| Fabric strength efficiency |
14.3.4
|
| Face |
|
| - cam |
1.1.17
|
| - gear |
12.4.20
|
| - gear pair |
12.4.29
|
| - hypoid gear pair |
12.4.30
|
| - worm |
12.5.21
|
| - worm gear pair |
12.5.9
|
| Facewidth |
12.1.81
|
| Factor, |
|
| dynamic (14) |
14.2.37
|
| dynamic* |
7.11
|
| elasticity |
7.11
|
| group |
14.2.38
|
| load |
14.2.37
|
| load spectrum |
14.2.40
|
| loss |
9.22
|
| loss (14) |
14.3.9
|
| Q- |
3.9.37
|
| quality |
3.9.37
|
| scale |
4.2.20
|
| understeer |
14.4.12
|
| Fast Fourier transform (FFT) |
9.110
|
| Fast twitch muscle fibre |
11.2.32
|
| Feathered muscle |
11.2.42
|
| Features of artificial intelligence |
13.3.11
|
| Feedback |
13.3.7
|
| - control system |
4.3.4
|
| - element |
4.3.3
|
| Feedback, primary |
4.1.7
|
| Feeder |
14.5.40
|
| - service |
14.5.41
|
| Feedforward |
13.3.8
|
| Fibre |
11.1.14
|
| - arcades |
11.3.10
|
| - arrangement, pennate |
11.2.21
|
| Fibril |
11.1.15
|
| Fibro-cartilage |
11.3.6
|
| Field of force |
3.2.69
|
| Field, |
|
| gravitational |
3.5.70
|
| vector |
6.4
|
| FIFO |
14.5.25
|
| Filament |
11.1.16
|
| Fillet |
12.1.57
|
| Fillet, tooth |
12.1.57
|
| Filter, |
9.45
|
| band-pass |
9.46
|
| constant bandwidth |
9.47
|
| constant percentage bandwidth |
9.51
|
| digital |
9.48
|
| high-pass |
9.49
|
| low-pass |
9.50
|
| proportional bandwidth |
9.51
|
| wave |
9.45
|
| First type hyperboloid gear pair |
12.5.2
|
| Fitting, corner |
14.2.15
|
| Fixed |
|
| - axode |
2.3.12
|
| - centrode |
2.3.8
|
| - load |
3.2.61
|
| - point |
9.80
|
| Fixed-pinned flexure hinge |
16.27
|
| Fixed-sequence manipulator |
5.1.18
|
| Fixed-stop robot |
5.1.7
|
| Flank, |
12.1.50
|
| active |
12.1.52
|
| left |
12.1.51
|
| nominal |
12.1.54
|
| right |
12.1.51
|
| thread |
12.1.50
|
| tooth |
12.1.50
|
| usable |
12.1.53
|
| Flanks, |
|
| corresponding |
12.1.55
|
| opposite |
12.1.56
|
| Fleet angle |
14.2.57
|
| Flexibility |
3.5.8
|
| Flexible joint |
16.5
|
| Flexor |
11.2.22
|
| Flexural |
|
| - centre |
3.5.39
|
| - pivot |
16.20
|
| - pivot, cross-axis |
16.29
|
| - pivot, small length |
16.23
|
| - rigidity |
3.5.14
|
| Flexure |
|
| - joint |
16.5
|
| - hinge |
16.20
|
| - hinge, fixed-pinned |
16.27
|
| - hinge, leaf spring |
16.21
|
| - hinge, notch |
16.22
|
| - pivot, cross- (single axis) |
16.28
|
| Floating link |
1.1.9
|
| Fluid |
|
| - average circumferential velocity |
8.25
|
| - average circumferential veloc. Ratio |
8.26
|
| - film lubricated bearing |
8.9
|
| - induced instability |
8.33
|
| - whip |
8.103
|
| - whirl |
8.107
|
| Fluid, |
11.1.17
|
| Bingham-plastic |
11.1.18
|
| dilatant |
11.1.19
|
| Newtonian |
11.1.20
|
| pseudoplastic |
11.1.21
|
| rheopectic |
11.1.22
|
| thixotropic |
11.1.23
|
| Fluidity |
11.1.24
|
| Flutter |
9.52
|
| FM |
8.41
|
| Flywheel |
1.2.23
|
| Follower |
|
| - load |
3.2.67
|
| - force |
7.13
|
| Follower, |
|
| cam |
1.1.21
|
| yoke |
1.1.22
|
| Footfall |
11.4.12
|
| - pattern |
11.4.11
|
| Footprint |
14.2.33
|
| Force |
3.2.1
|
| - control |
5.4.11
|
| - excitation |
9.42
|
| - function |
3.2.70
|
| - of gravity |
3.5.68
|
| - sense |
5.5.11
|
| - system, concurrent |
3.2.50
|
| - system, coplanar |
3.2.49
|
| - system, equivalent |
3.2.46
|
| - system, parallel |
3.2.48
|
| - system, spatial |
3.2.51
|
| Force, |
|
| active |
3.2.4
|
| Alford |
8.27
|
| applied |
3.2.4
|
| axial |
3.2.24
|
| bearing |
3.2.28
|
| body |
3.2.20
|
| central |
3.2.14
|
| centrifugal |
3.2.10
|
| centripetal |
3.2.8
|
| compressive |
3.2.22
|
| concentrated |
3.2.18
|
| conservative |
3.2.72
|
| conservative field of |
3.2.71
|
| continuous |
3.2.19
|
| Coriolis |
3.2.11
|
| critical |
3.2.26
|
| d’Alembert |
3.2.9
|
| deterministic |
3.2.32
|
| dissipative |
3.2.74
|
| distributed |
3.2.19
|
| driving |
7.12
|
| elastic |
3.2.17
|
| equivalent |
3.2.27
|
| excitation |
9.53
|
| external |
3.2.15
|
| field of |
3.2.69
|
| follower |
7.13
|
| frictional |
3.5.49
|
| generalized |
3.2.75
|
| hysteretic damping |
9.54
|
| impact |
3.5.55
|
| impulsive |
3.2.30
|
| inertia |
3.2.9
|
| internal |
3.2.16
|
| line of action of |
3.2.2
|
| longitudinal |
3.2.24
|
| magnitude of |
3.2.3
|
| moment of, about a point |
3.2.35
|
| moment of, about an axis |
3.2.34
|
| non-conservative |
3.2.73
|
| point of action of |
7.26
|
| power of |
3.3.24
|
| reduced |
3.2.27
|
| relative |
3.2.12
|
| resistant |
7.14
|
| restoring |
7.15
|
| resultant |
3.2.47
|
| shaking |
3.2.29
|
| shear |
3.2.25
|
| shearing |
3.2.25
|
| stochastic |
3.2.33
|
| surface |
3.2.21
|
| tensile |
3.2.23
|
| transportation |
3.2.13
|
| transverse |
3.2.25
|
| Force-closed pair |
1.2.7
|
| Forced |
|
| - vibration |
3.9.21
|
| - rotor mode (shape) |
8.64
|
| Force-length characteristic |
11.2.23
|
| Force-velocity characteristic |
11.2.24
|
| Forearm |
5.2.6
|
| Forestay |
14.2.22
|
| Fork lift truck |
14.2.31
|
| Form-closed pair |
1.2.8
|
| Form, stability of |
10.6
|
| Formula, magic (of a tyre) |
14.4.7
|
| Forward |
|
| - precession |
8.56
|
| - whip |
8.56
|
| - whirl |
8.56
|
| Forwarder, freight |
14.5.34
|
| Forwarding agent |
14.5.34
|
| Foundation, |
3.6.31
|
| elastic |
3.6.32
|
| Winkler |
14.3.14
|
| Four-bar |
|
| - linkage |
1.3.30
|
| - mechanism |
1.3.31
|
| Fourier |
|
| - component |
3.9.9
|
| - transform |
9.108
|
| Fractal |
9.55
|
| Frame |
1.1.5
|
| - acceleration |
2.2.19
|
| - motion |
2.2.5
|
| - velocity |
2.2.12
|
| Frame-work |
3.6.12
|
| Free |
|
| - rotor mode (shape) |
8.65
|
| - support |
3.6.28
|
| - vibration |
3.9.19
|
| Freedom, degree of |
3.7.29
|
| Freight |
14.1.5
|
| - container |
14.5.15
|
| - forwarder |
14.5.34
|
| Frequency |
3.9.3
|
| - modulation |
8.41
|
| - of revolution |
8.80
|
| - response function |
4.1.9
|
| Frequency, |
|
| amplitude resonant |
9.56
|
| angular |
9.57
|
| blade passing |
8.28
|
| center |
9.58
|
| circular |
9.57
|
| damped natural |
9.59
|
| fundamental |
3.9.4
|
| gear mesh |
8.29
|
| natural |
3.9.39
|
| phase resonant |
9.60
|
| resonance |
3.9.35
|
| vane passing |
8.28
|
| Frequency-modulated signal |
4.1.6
|
| Friction |
3.5.43
|
| - characteristic |
7.8
|
| - wheel |
1.1.39
|
| Friction, |
|
| angle of |
3.5.51
|
| coefficient of |
3.5.50
|
| cone of |
3.5.52
|
| Coulomb |
7.16
|
| dry |
7.17
|
| kinetic |
3.5.44
|
| limiting |
3.5.48
|
| pivoting |
3.5.46
|
| rolling |
3.5.45
|
| sliding |
3.5.44
|
| spin |
3.5.46
|
| static |
3.5.47
|
| static, coefficient of |
3.5.50
|
| Frictional force |
3.5.49
|
| Front, wave |
3.9.53
|
| Frontal |
|
| - axis |
11.5.5
|
| - plane |
11.5.18
|
| Fulcrum |
11.3.11
|
| Full |
|
| - rope trolley |
14.2.8
|
| - scale |
4.2.18
|
| - spectrum plot |
8.46
|
| Function, |
|
| dissipation |
3.2.76
|
| force |
3.2.70
|
| frequency response |
4.1.9
|
| Hamiltonian |
3.3.11
|
| Lagrangian |
3.3.12
|
| Rayleigh dissipation |
3.2.76
|
| relaxation |
14.3.10
|
| step |
4.1.24
|
| transfer (2) |
2.2.54
|
| transfer (3) |
3.7.44
|
| vector |
6.5
|
| Functions, artificial intelligence |
13.3.9
|
| Function-generating mechanism |
1.3.21
|
| Fundamental |
|
| - frequency |
3.9.4
|
| - mode |
3.9.29
|
| - vibration |
3.9.15
|
| Fusiform muscle |
11.2.43
|
| Fusion, sensor |
13.2.12
|
| Fuzzy control |
13.3.4
|
| Gain |
4.1.13
|
| - crossover |
4.1.17
|
| - margin |
4.1.16
|
| - stability |
4.2.4
|
| Gain, loop |
4.1.15
|
| Gait, |
11.4.13
|
| asymmetrical |
11.4.14
|
| running |
11.4.15
|
| symmetrical |
11.4.16
|
| walking |
11.4.17
|
| Galileo’s law of relativity |
3.4.12
|
| Gallop |
11.4.18
|
| Gallop, |
|
| rotary |
11.4.19
|
| transverse |
11.4.20
|
| Gantry |
5.2.2
|
| Gantry crane |
14.2.19
|
| Gauge, |
|
| rail loading |
14.1.28
|
| strain |
8.30
|
| track |
14.1.27
|
| Gear |
1.1.24
|
| - and cam mechanism |
12.6.3
|
| - and Geneva cross mechanism |
12.6.4
|
| - axis |
12.2.35
|
| - body |
12.1.26
|
| - crank-and-rocker mechanism |
12.6.5
|
| - mechanism |
12.6.2
|
| - mesh frequency |
8.29
|
| - pair |
1.2.20
|
| - ratio |
2.2.56
|
| - sector |
1.1.28
|
| - segment |
1.1.28
|
| - tooth |
12.1.29
|
| - train |
1.3.42
|
| Gear, |
|
| bevel |
1.1.31
|
| biequivalent cylindrical |
12.4.35
|
| conical |
1.1.31
|
| contrate |
12.4.20
|
| crown |
12.4.19
|
| cycloidal |
12.1.90
|
| cylindrical |
1.1.25
|
| double-enveloping worm |
12.5.26
|
| double-helical |
1.1.30
|
| driven |
12.2.7
|
| driving |
12.2.6
|
| epicyclic |
1.3.44
|
| equivalent bevel |
12.4.34
|
| equivalent cylindrical |
12.4.33
|
| equivalent spur |
12.3.19
|
| external |
12.1.86
|
| face |
12.4.20
|
| generating |
12.1.21
|
| globoidal worm |
12.5.26
|
| helical |
1.1.29
|
| herring-bone |
1.1.30
|
| hypoid |
1.1.32
|
| internal |
12.1.87
|
| involute cylindrical |
12.1.89
|
| lantern |
12.1.92
|
| mating |
12.1.27
|
| mitre |
1.3.43
|
| octoid |
12.4.21
|
| planet |
1.1.35
|
| planetary |
1.1.35
|
| quasy-involute bevel |
12.4.21
|
| ring |
12.6.7
|
| skew bevel |
12.4.15
|
| spiral bevel |
12.4.16
|
| spiral cylindrical |
12.1.91
|
| spiroid |
12.5.22
|
| spur |
1.1.26
|
| straight bevel |
12.4.14
|
| sun |
12.6.8
|
| virtual bevel |
12.4.34
|
| virtual cylindrical |
12.4.33
|
| worm |
1.1.33
|
| x- |
12.3.8
|
| x-zero |
12.3.10
|
| zerol bevel |
12.4.18
|
| Geared linkage |
1.3.45
|
| Geared mechanism |
12.6.2
|
| Gearing |
12.1.28
|
| Gear of a gear, generating |
12.1.21
|
| Gear pair, |
|
| angular bevel |
12.4.24
|
| bevel |
12.4.22
|
| circular - helical cylindrical |
12.3.18
|
| contrate |
12.4.29
|
| crossed helical |
12.5.4
|
| cycloidal |
12.3.15
|
| cylindrical |
12.3.12
|
| cylindrical worm |
12.5.8-
|
| double-enveloping worm |
12.5.27
|
| double-helical |
12.3.14
|
| equivalent bevel |
12.4.32
|
| equivalent cylindrical |
12.4.31
|
| external |
12.2.3
|
| face |
12.4.29
|
| face hypoid |
12.4.30
|
| face worm |
12.5.9
|
| first type hyperboloid |
12.5.2
|
| globoidal worm |
12.5.27
|
| herring-bone |
12.3.14
|
| hyperboloid |
12.5.1
|
| hypoid |
12.5.3
|
| internal |
12.2.4
|
| involute bevel |
12.4.23
|
| involute spur |
12.3.7
|
| lantern |
12.3.16
|
| octoid |
12.4.28
|
| parallel helical |
12.3.13
|
| quasy-involute bevel |
12.4.28
|
| rack-and-worm |
12.5.10
|
| second type hyperboloid |
12.5.5
|
| single enveloping worm |
12.5.8
|
| skew bevel |
12.4.26
|
| spiral bevel |
12.4.27
|
| spiral cylindrical |
12.3.17
|
| spiroid |
12.5.6
|
| straight bevel |
12.4.25
|
| virtual bevel |
12.4.32
|
| virtual cylindrical |
12.4.31
|
| Wildhaber-Novikoff’s cylindrical |
12.3.18
|
| worm |
12.5.7
|
| x- |
12.3.9
|
| x-zero |
12.3.11
|
| Gear tooth |
12.1.29
|
| Gear train, |
|
| harmonic |
12.6.10
|
| wave |
12.6.10
|
| General cargo |
14.1.6
|
| Generalized |
|
| - coordinate |
6.20
|
| - force |
3.2.75
|
| - momentum |
3.3.2
|
| Generating |
|
| - cone |
12.1.20
|
| - gear |
12.1.21
|
| - gear of a gear |
12.1.21
|
| - surface |
12.1.19
|
| - torus |
12.1.22
|
| Generation |
12.1.16
|
| Generatrix |
12.1.17
|
| Generatrix, straight-linear |
12.1.18
|
| Geneva |
|
| - drive |
1.3.46
|
| - mechanism |
1.3.46
|
| Geometric |
|
| - centerline |
8.12
|
| - constraint |
3.7.23
|
| Ginglymus |
11.3.18
|
| Girder, |
|
| box |
14.2.1
|
| lattice |
14.2.2
|
| Global |
|
| - bifurcation |
9.12
|
| - motion |
9.71
|
| - stability |
10.15
|
| Globoid |
12.1.15
|
| Globoidal |
|
| - worm |
12.5.15
|
| - worm gear |
12.5.26
|
| - worm gear pair |
12.5.27
|
| GM-value |
14.1.26
|
| Goal-oriented behaviour |
13.3.2
|
| Goodman diagram |
14.2.43
|
| Governor |
4.3.8
|
| Grab, |
14.2.11
|
| clamshell |
14.2.12
|
| scissors |
14.2.13
|
| Valstar |
14.2.12
|
| Gradient |
6.6
|
| - of velocity |
11.1.25
|
| Grappler arms |
14.2.14
|
| Gravitation, law of universal |
3.4.13
|
| Gravitational field |
3.5.70
|
| Gravity, centre of |
3.7.5
|
| Gravity force |
3.5.68
|
| Grid |
3.6.18
|
| Grillage |
3.6.18
|
| Gripper |
5.2.10
|
| Ground |
4.3.20
|
| Ground by |
|
| - cone wheel cylindrical worm |
12.5.24
|
| - toroidal wheel cylindrical worm |
12.5.25
|
| Group factor |
14.2.38
|
| Group, Assur |
1.3.12
|
| Guidance mechanism |
1.3.20
|
| Guide |
1.1.12
|
| Gyration, radius of |
3.7.15
|
| Gyro effect |
3.5.72
|
| Gyroscope |
3.8.7
|
| Gyroscopic effect |
3.5.72
|
| Half bound |
11.4.6
|
| Hamilton’s principle |
3.4.11
|
| Hamiltonian |
|
| - function |
3.3.11
|
| - variable |
3.3.5
|
| Hanavan’s model |
11.1.26
|
| Harmonic |
3.9.9
|
| - gear train |
12.6.10
|
| - response, closed-loop |
4.1.11
|
| - response, open-loop |
4.1.12
|
| - vibration |
3.9.14
|
| Heave |
14.1.17
|
| Heavy spot |
8.84
|
| Height, constant chord |
12.2.40
|
| Helical |
|
| - gear |
1.1.29
|
| - pair |
1.2.13
|
| - tooth |
12.1.61
|
| Helicoid |
12.1.11
|
| Helicoid, |
|
| involute |
12.1.12
|
| spherical involute |
12.1.13
|
| Helix |
12.1.10
|
| Helix angle |
12.1.72
|
| Herring-bone gear |
1.1.30
|
| Herring-bone gear pair |
12.3.14
|
| Heterogeneous body |
3.6.5
|
| Hexapod |
11.4.21
|
| High spot |
8.85
|
| Higher pair |
1.2.10
|
| High-pass filter |
9.49
|
| Hill equation |
9.37
|
| Hill’s curve |
11.2.25
|
| Hinge, |
|
| cartwheel |
16.30
|
| flexure |
16.20
|
| living |
16.24
|
| Hinge |
1.2.11
|
| - joint |
11.3.18
|
| History, time |
6.12
|
| Hodograph, velocity |
6.8
|
| Hoist |
14.1.10
|
| Hold |
5.3.24
|
| Holonomic |
|
| - constraint |
3.7.27
|
| - system |
3.8.8
|
| Homogeneous body |
3.6.3
|
| Hooke’s |
|
| - joint |
1.2.18
|
| - law |
3.5.5
|
| Hopf bifurcation |
9.13
|
| Hourglass worm |
12.5.15
|
| Hub |
14.5.39
|
| Human like intelligence |
13.3.12
|
| Huxley’s curve |
11.2.26
|
| Hyaline cartilage |
11.3.7
|
| Hybrid model |
6.32
|
| Hybrid compliant mechanism |
16.10
|
| Hydroskeleton |
11.3.34
|
| Hydrostatic skeleton |
11.3.34
|
| Hyperbolic point |
9.81
|
| Hyperboloid gear pair |
12.5.1
|
| Hyperboloid, single-space rotation |
12.1.9
|
| Hyperstatic system |
3.8.16
|
| Hypocycloid |
12.1.3
|
| Hypoid gear |
1.1.32
|
| Hypoid gear pair |
12.5.3
|
| Hypomochlion |
11.3.12
|
| Hysteresis |
7.18
|
| Hysteresis, elastic |
3.5.3
|
| Hysteretic |
|
| - damping |
9.27
|
| - damping force |
9.54
|
| - whip |
8.104
|
| - whirl* |
8.104
|
| Idiomotion |
11.4.22
|
| Idler |
1.1.38
|
| Idler (roll) |
14.1.2
|
| Image pole |
2.3.27
|
| Impact |
3.5.54
|
| - force |
3.5.55
|
| - number |
9.74
|
| Impact, |
|
| central |
3.5.56
|
| direct |
3.5.58
|
| eccentric |
3.5.57
|
| elastic |
3.5.62
|
| inelastic |
3.5.63
|
| longitudinal |
3.5.60
|
| oblique |
3.5.59
|
| transverse |
3.5.61
|
| Impedance |
3.7.47
|
| - control |
5.4.10
|
| Impedance, |
|
| angular mechanical |
7.19
|
| direct |
7.20
|
| driving-point |
7.20
|
| mechanical |
7.21
|
| transfer |
7.22
|
| Impulse |
3.2.31
|
| Impulsive force |
3.2.30
|
| Incongruent joint |
11.3.19
|
| Independent variable |
7.42
|
| Industry pallet |
14.5.12
|
| Inelastic impact |
3.5.63
|
| Inertia |
|
| - couple |
3.2.45
|
| - force |
3.2.9
|
| - tensor |
3.7.13
|
| Inertia, |
|
| central ellipsoid of |
3.7.17
|
| ellipsoid of |
3.7.16
|
| equivalent moment of |
3.7.14
|
| moment of |
3.7.7
|
| principal axis of |
3.7.11
|
| principal moment of |
3.7.12
|
| product of |
3.7.10
|
| Inertial |
|
| - system |
3.8.21
|
| - transducer |
8.97
|
| Inferior |
11.5.10
|
| Infinite resolution |
4.2.8
|
| Inflection |
|
| - centre |
2.3.20
|
| - circle |
2.3.18
|
| - point |
2.3.19
|
| Influence coefficient* |
8.31
|
| Inhibition, reciprocal |
11.2.27
|
| Initial condition |
3.3.10
|
| In-phase vibrations |
9.125
|
| Input |
|
| - kinematic pair |
1.2.27
|
| - link |
1.1.3
|
| - torque |
3.2.42
|
| Input (4) |
4.1.5
|
| Input (6) |
6.15
|
| Input, reference |
4.1.3
|
| Insensibility |
9.61
|
| Insertion of muscle |
11.2.44
|
| Instability, |
|
| fluid-induced |
8.33
|
| threshold of |
8.91
|
| Instantaneous |
|
| - axis of a gear pair |
12.2.33
|
| - centre |
2.3.3
|
| - centre of acceleration |
2.3.6
|
| - centre of velocity |
2.3.3
|
| - dwell |
2.2.5
|
| - screw axis |
2.3.5
|
| Integral control |
4.1.32
|
| Integrator |
9.62
|
| Intelligence, |
|
| artificial (5) |
5.5.15
|
| artificial (13) |
13.3.10
|
| control |
13.1.5
|
| features |
13.3.11
|
| human like |
13.3.12
|
| machine |
13.3.13
|
| Intelligent |
|
| - actuator |
13.2.1
|
| - behaviour |
13.3.2
|
| - machine |
13.2.3
|
| - material |
13.2.4
|
| - robot |
5.1.8
|
| - sensor |
13.2.13
|
| Interferometer |
4.3.19
|
| Intermittency |
9.63
|
| Intermodal transport |
14.5.8
|
| Internal |
|
| - force |
3.2.16
|
| - gear |
12.1.87
|
| - gear pair |
12.2.4
|
| - resonance |
9.88
|
| Invariant system |
3.8.12
|
| Inverse |
|
| - motion |
2.2.4
|
| - task |
5.5.9
|
| Inversion, kinematic |
1.3.14
|
| Involuntary muscle |
11.2.52
|
| Involute |
12.1.5
|
| - bevel gear pair |
12.4.23
|
| - cylindrical gear |
12.1.89
|
| - helicoid |
12.1.12
|
| - spur gear pair |
12.3.7
|
| - to a circle |
12.1.6
|
| - worm |
12.5.18
|
| Involute, spherical |
12.1.7
|
| Ipsilateral |
11.5.14
|
| Isokinetic contraction |
11.2.12
|
| Isolation, vibration |
9.64
|
| Isolator, vibration |
9.65
|
| Isometric contraction |
11.2.11
|
| Isomorphism |
1.3.2
|
| Isotonic contraction |
11.2.14
|
| Isotropic |
|
| - body |
3.6.4
|
| - rotor |
8.68
|
| Isotropy |
3.5.11
|
| ITU |
14.5.22
|
| Jerk |
2.2.24
|
| Jib |
14.2.5
|
| Joint (1) |
1.2.2
|
| Joint (11) |
11.3.13
|
| Joint |
|
| - coordinate system |
5.3.5
|
| - flexibility |
11.3.14
|
| - space |
5.3.11
|
| - stability |
11.3.15
|
| - variable |
5.3.27
|
| Joint, |
|
| ball-and-socket |
11.3.16
|
| Cardan |
1.2.18
|
| compliant |
16.5
|
| condyloid |
11.3.17
|
| ellipsoid |
11.3.17
|
| flexible |
16.5
|
| flexure |
16.5
|
| hinge |
11.3.18
|
| Hooke’s |
1.2.18
|
| incongruent |
11.3.19
|
| kinematic |
1.3.8
|
| pin |
1.2.19
|
| pivot |
11.3.22
|
| planar contact |
11.3.20
|
| pseudo |
16.19
|
| saddle |
11.3.21
|
| synovial |
11.3.9
|
| trochoid |
11.3.22
|
| universal |
1.2.18
|
| Journal (1) |
1.1.47
|
| Journal (8) |
8.34
|
| Keyphasor transducer |
8.94
|
| Kinematic |
|
| - analysis |
2.1.2
|
| - chain |
1.3.5
|
| - chain, closed |
1.3.6
|
| - chain, degree of freedom of |
1.3.11
|
| - chain, mobility of |
1.3.11
|
| - chain, open |
1.3.7
|
| - excitation |
9.43
|
| - inversion |
1.3.14
|
| - joint |
1.3.8
|
| - pair |
1.2.3
|
| - pair, closure of |
1.2.6
|
| - pair, connectivity of |
1.2.5
|
| - pair, degree of freedom of |
1.2.5
|
| - viscosity |
11.1.48
|
| Kinematics |
2.1.1
|
| Kinetic |
|
| - energy of a particle |
3.3.16
|
| - energy of a system |
3.3.17
|
| - friction |
3.5.44
|
| - potential |
3.3.12
|
| Kinesiology |
11.1.27
|
| Kinetics |
3.1.1
|
| Kinetostatics |
3.1.1
|
| King pin |
14.4.21
|
| Lag |
4.1.27
|
| Lagrange, stability in the sense of |
10.4
|
| Lagrangian function |
3.3.12
|
| Lambda |
8.26
|
| Lamina, polar moment of inertia of |
3.7.8
|
| Land container |
14.5.19
|
| Lang lay |
14.2.53
|
| Lantern |
|
| - gear |
12.1.92
|
| - gear pair |
12.3.16
|
| Latch |
1.1.50
|
| Latent vector |
3.9.28
|
| Lateral |
|
| - buckling of a beam |
3.5.28
|
| - vibration |
8.99
|
| Lateral, |
11.5.11
|
| col- |
11.5.12
|
| contra- |
11.5.13
|
| ipsi- |
11.5.14
|
| Lattice girder |
14.2.2
|
| Law |
|
| - (of motion), Newton’s first |
3.4.14
|
| - (of motion), Newton’s second |
3.4.15
|
| - (of motion), Newton’s third |
3.4.16
|
| - of (universal) gravitation |
3.4.13
|
| Law, Hooke’s |
3.5.5
|
| Lay length, rope |
14.2.55
|
| Lay, |
|
| alternate |
14.2.54
|
| equal (rope) |
14.2.48
|
| lang |
14.2.53
|
| left |
14.2.47
|
| regular |
14.2.52
|
| reverse |
14.2.54
|
| right |
14.2.47
|
| Layer, boundary |
11.4.23
|
| Lead (2) |
2.2.59
|
| Lead (11) |
11.4.24
|
| Lead |
|
| - angle |
12.1.71
|
| - of a thread helix |
12.1.73
|
| - of a toot helix |
12.1.73
|
| Leaf spring flexure hinge |
16.21
|
| Learning |
13.3.14
|
| - control |
5.4.8
|
| Left flank |
12.1.51
|
| Left lay |
14.2.47
|
| Legged locomotion |
11.4.35
|
| Lemniscate crane |
14.2.26
|
| Length of path of contact |
12.3.3
|
| Length, |
|
| base tangent |
12.1.88
|
| overlap |
12.1.82
|
| rope lay |
14.2.55
|
| Level luffing crane |
14.2.24
|
| LIFO |
14.5.25
|
| Lift (2) |
2.2.61
|
| Lift (11) |
11.4.25
|
| Lift (14) |
14.1.9
|
| Lift, coefficient of |
11.4.26
|
| Ligament |
11.3.23
|
| Ligaments, |
|
| collaterale |
11.3.24
|
| cruciate |
11.3.25
|
| Limb |
11.1.28
|
| Limit |
|
| - cycle |
9.25
|
| - cycle, stability of |
10.7
|
| - envelope |
9.35
|
| - position |
2.2.58
|
| - position of a link |
1.3.16
|
| - position of a mechanism |
1.3.15
|
| Limit, elastic |
11.1.36
|
| Limiting friction |
3.5.48
|
| Line, |
|
| contact |
12.2.14
|
| elastic |
3.5.41
|
| pitch |
12.2.15
|
| pivot |
14.4.3
|
| Line of |
|
| - action of a force |
3.2.2
|
| - centres |
12.3.1
|
| - common teeth contact |
12.2.13
|
| - contact |
12.1.30
|
| - transverse action |
12.3.2
|
| Linear |
|
| - eigenvalues |
9.34
|
| - momentum |
3.3.1
|
| - system |
3.8.17
|
| Linearization |
9.66
|
| Link, |
1.1.2
|
| compliant |
16.2
|
| floating |
1.1.9
|
| input |
1.1.3
|
| limit position of |
1.3.16
|
| output |
1.1.4
|
| toothed |
12.1.84
|
| Linkage, |
1.3.29
|
| four-bar |
1.3.30
|
| geared |
1.3.45
|
| Linkwork |
1.3.29
|
| Lissajous plot |
8.42
|
| List |
14.1.20
|
| Live load |
3.2.62
|
| Living hinge |
16.24
|
| Load |
3.2.58
|
| - case |
14.2.36
|
| - combination |
14.2.36
|
| - curve |
14.2.32
|
| - cycle |
14.2.34
|
| - factor |
14.2.37
|
| - spectrum |
14.2.39
|
| - spectrum class |
14.2.41
|
| - spectrum factor |
14.2.40
|
| - unit |
14.5.5
|
| - zone |
8.35
|
| Load, |
|
| alternating |
3.2.64
|
| continuous |
3.2.59
|
| critical |
3.2.68
|
| dead |
3.2.61
|
| distributed |
3.2.59
|
| dynamic |
3.2.63
|
| fixed |
3.2.61
|
| follower |
3.2.67
|
| live |
3.2.62
|
| pay~ |
14.5.6
|
| permanent |
3.2.61
|
| pulsating |
3.2.65
|
| rolling |
3.2.66
|
| uniform |
3.2.60
|
| uniformly distributed |
3.2.60
|
| Loading unit |
14.5.5
|
| Loading, combined |
11.1.29
|
| Local |
|
| - bifurcation |
9.14
|
| - motion |
9.72
|
| - stability |
10.16
|
| Locomotion, |
11.4.27
|
| anguilliform |
11.4.28
|
| apedal |
11.4.29
|
| aquatic |
11.4.30
|
| arboreal |
11.4.31
|
| avian |
11.4.32
|
| carangiform |
11.4.33
|
| legged |
11.4.35
|
| ostraciiform |
11.4.34
|
| pedal |
11.4.35
|
| peristaltic |
11.4.36
|
| serpentine |
11.4.37
|
| terrestrial |
11.4.38
|
| undulatory |
11.4.39
|
| Logarithmic decrement |
3.9.38
|
| Logistic simulation |
14.5.26
|
| Logistical chain |
14.5.1
|
| Logistics, transportational |
14.1.3
|
| Longitudinal |
|
| - axis |
11.5.3
|
| - force |
3.2.24
|
| - impact |
3.5.60
|
| - rigidity |
3.5.12
|
| - strain |
3.5.20
|
| - vibration |
3.9.24
|
| - wave |
3.9.48
|
| Loop |
1.3.9
|
| - gain |
4.1.15
|
| - phase |
4.1.14
|
| - ratio |
4.1.12
|
| Loss |
|
| - angle |
14.3.6
|
| - coefficient |
9.22
|
| - factor |
9.22
|
| - factor (14) |
14.3.9
|
| - modulus |
14.3.8
|
| Lower pair |
1.2.9
|
| Low-pass filter |
9.50
|
| Luff |
14.1.11
|
| Luffing crane, level |
14.2.24
|
| Lumped compliance |
|
| Lumped-parameter system |
3.8.18
|
| LVDT |
8.36
|
| Lyapunov, stability in the sense of |
10.5
|
| Machine |
0.2
|
| - aggregate |
7.2
|
| - intelligence |
13.3.13
|
| Machine, |
|
| adaptive |
13.2.6
|
| cyclic efficiency of |
3.3.27
|
| intelligent |
13.2.3
|
| stability of a rotating |
8.86
|
| starting regime of |
2.2.40
|
| steady-state motion of |
2.2.42
|
| stopping regime of |
2.2.41
|
| walking |
5.1.11
|
| Magic formula |
14.4.7
|
| Magnitude of a force |
3.2.3
|
| Major axes |
5.3.9
|
| Manipulated variable |
4.1.2
|
| Manipulation |
11.4.40
|
| Manipulator, |
5.1.13
|
| bilateral |
5.1.16
|
| fixed-sequence |
5.1.18
|
| manual |
5.1.14
|
| master-slave |
5.1.15
|
| parallel |
5.2.14
|
| programmable |
5.1.17
|
| Manoeuvrability |
5.3.8
|
| Manual manipulator |
5.1.14
|
| Map, |
|
| critical speed* |
8.37
|
| natural frequency |
8.37
|
| Poincaré |
9.91
|
| spectral |
9.67
|
| Mapping obstacle |
5.3.29
|
| Margin, |
|
| gain |
4.1.16
|
| phase |
4.1.19
|
| Maritime container |
14.5.16
|
| Mass |
|
| - centerline |
8.13
|
| - of a body |
3.7.3
|
| - of a particle |
3.7.2
|
| Mass, |
|
| calibration |
8.38
|
| centre of |
3.7.4
|
| point |
3.7.1
|
| principle of motion of centre of |
3.4.7
|
| trial |
8.38
|
| Mast |
14.2.4
|
| Master-slave manipulator |
5.1.15
|
| Material, |
|
| active |
13.2.7
|
| intelligent |
13.2.4
|
| piezoelectric |
8.39
|
| smart |
13.2.5
|
| Mathematical model |
6.28
|
| Mathieu equation |
9.38
|
| Mating gear |
12.1.27
|
| Maxwell |
|
| - element |
14.3.13
|
| - model |
14.3.12
|
| - model (3-parameter) |
14.3.13
|
| Means of transport |
14.1.4
|
| Mean-square value |
6.10
|
| Mechanical |
|
| - coherence |
16.17
|
| - efficiency |
3.3.26
|
| - energy |
3.3.18
|
| - impedance |
7.21
|
| - mobility |
3.7.30
|
| - model |
6.29
|
| - run-out |
8.72
|
| - shock |
3.5.53
|
| - system |
3.8.2
|
| Mechanism |
0.3
|
| - analysis |
0.5
|
| - element |
1.1.1
|
| Mechanism, |
|
| adjustable |
1.3.28
|
| balanced |
3.2.57
|
| bistable compliant |
16.12
|
| cam |
1.3.39
|
| cognate |
1.3.4
|
| compliant |
16.8
|
| crank-and-rocker |
1.3.32
|
| degree of freedom of |
1.3.11
|
| differential |
1.3.26
|
| double-crank |
1.3.33
|
| double-rocker |
1.3.35
|
| double-slider |
1.3.37
|
| drag-link |
1.3.33
|
| dwell |
1.3.25
|
| equivalent |
1.3.3
|
| equivalent mass of |
3.7.6
|
| four-bar |
1.3.31
|
| fully compliant |
16.9
|
| function-generating |
1.3.21
|
| gear |
12.6.1
|
| geared |
12.6.2
|
| gear and cam |
12.6.3
|
| gear and Geneva cross |
12.6.4
|
| gear crank-and-rocker |
12.6.5
|
| Geneva |
1.3.46
|
| guidance |
1.3.20
|
| hybrid compliant |
16.10
|
| limit position of |
1.3.15
|
| mobility of |
1.3.11
|
| monolitic |
16.11
|
| parallel-crank |
1.3.34
|
| partially compliant |
16.10
|
| path-generating |
1.3.22
|
| pilgrim-step |
1.3.24
|
| planar |
1.3.17
|
| reduced mass of |
3.7.6
|
| Scotch-yoke |
1.3.38
|
| screw |
1.3.40
|
| self-locking |
1.3.27
|
| slider-crank |
1.3.36
|
| spatial |
1.3.19
|
| spherical |
1.3.18
|
| step |
1.3.23
|
| structure of |
1.3.1
|
| toothed |
12.6.2
|
| wedge |
1.3.41
|
| Mechanism and machine science |
0.1
|
| Mechanism of variable structure |
13.2.8
|
| Mechatronic approach |
13.1.1
|
| Mechatronical system |
13.2.21
|
| Mechatronics |
0.4
|
| Medial |
11.5.15
|
| Median |
11.5.16
|
| Median plane |
11.5.19
|
| Membrane |
3.6.21
|
| Meniscus |
11.3.26
|
| Mesh frequency, gear |
8.29
|
| Meshing |
12.1.28
|
| Meshing, |
|
| cutter tool |
12.2.38
|
| cycloidal |
12.1.85
|
| octoid |
12.4.13
|
| quasy involute bevel |
12.4.13
|
| spherical involute |
12.4.12
|
| tooth |
12.1.28
|
| Metabolism |
11.1.30
|
| Metacentre |
14.1.25
|
| Metachronal |
11.4.41
|
| Meter, vibration |
9.68
|
| Method, segmental |
11.1.31
|
| Microcontroller |
13.2.9
|
| Micromechatronics |
13.1.6
|
| Microprocessor |
13.2.10
|
| Middle surface of a plate |
3.6.22
|
| Minor axes |
5.3.10
|
| Mirror pole |
2.3.27
|
| Mitre gear |
1.3.43
|
| Mobile |
1.3.10
|
| - robot |
5.1.10
|
| Mobility |
|
| - of a compliant joint |
16.6
|
| - of a kinematic chain |
1.3.11
|
| - of a mechanism |
1.3.11
|
| Mobility, |
|
| direct |
3.7.31
|
| driving-point |
3.7.31
|
| mechanical |
3.7.30
|
| redundant |
5.3.7
|
| Modal shift |
14.5.3
|
| Modal vector |
3.9.28
|
| Mode of vibration |
3.9.27
|
| Mode, |
|
| characteristic |
3.9.28
|
| eigen- |
3.9.28
|
| fundamental |
3.9.29
|
| natural |
3.9.28
|
| normal (of vibration) |
3.9.28
|
| transport |
14.5.2
|
| Mode (shape) |
|
| - forced, rotor |
8.64
|
| - free, rotor |
8.65
|
| Model, |
6.23
|
| bicycle |
14.4.16
|
| continuous |
6.31
|
| discrete |
6.30
|
| hybrid |
6.32
|
| mathematical |
6.28
|
| Maxwell |
14.3.13
|
| Maxwell (3-parameter) |
14.3.12
|
| mechanical |
6.29
|
| physical |
6.26
|
| pseudo-rigid body |
16.18
|
| scale |
6.27
|
| Modes, |
|
| coupled |
3.9.30
|
| uncoupled |
3.9.31
|
| Modification, addendum |
12.3.4
|
| Modulation, |
|
| amplitude |
8.40
|
| direct |
8.40
|
| frequency |
8.41
|
| Module (5) |
5.2.11
|
| Module (12) |
12.1.68
|
| Module, |
|
| axial |
12.1.75
|
| collo |
14.5.13
|
| normal |
12.1.69
|
| Modulus of rigidity |
3.5.15
|
| Modulus, |
|
| dynamic |
9.69
|
| dynamic Young’s (of a belt) |
14.3.5
|
| loss |
14.3.9
|
| shear |
3.5.15
|
| storage |
14.3.7
|
| Young’s |
3.5.4
|
| Moment |
|
| - arm |
3.2.36
|
| - excitation |
9.42
|
| - of a couple |
3.2.38
|
| - of a force about a point |
3.2.35
|
| - of a force about an axis |
3.2.34
|
| - of inertia |
3.7.7
|
| - of inertia, equivalent |
3.7.14
|
| - of inertia, polar, of a body |
3.7.9
|
| - of inertia, polar, of a lamina |
3.7.8
|
| - of inertia, principal |
3.7.12
|
| - of momentum |
3.3.3
|
| - of momentum, principle of |
3.4.5
|
| - of momentum, principle of cons. Of |
3.4.6
|
| Moment, |
|
| bending |
3.2.40
|
| driving |
7.12
|
| equivalent |
3.2.44
|
| excitation |
9.53
|
| reduced |
3.2.44
|
| resistant |
7.14
|
| restoring |
7.15
|
| resultant |
3.2.39
|
| torsional |
3.2.41
|
| twisting |
3.2.41
|
| Momental ellipsoid |
3.7.16
|
| Momentary dwell |
2.2.52
|
| Momentum |
3.3.1
|
| Momentum, |
|
| angular |
3.3.4
|
| generalized |
3.3.2
|
| linear |
3.3.1
|
| moment of |
3.3.3
|
| principle of |
3.4.3
|
| principle of cons. Of |
3.4.4
|
| principle of cons. Of moment of |
3.4.6
|
| principle of moment of |
3.4.5
|
| Monitoring |
13.1.7
|
| Monolitic compliant mechanism |
16.11
|
| Morphology |
11.1.32
|
| Motion |
2.2.1
|
| - of centre of mass, principle of |
3.4.7
|
| - segment |
11.3.27
|
| Motion, |
|
| absolute |
2.2.2
|
| aperiodic |
2.2.47
|
| apparent |
3.3.7
|
| central |
2.2.3
|
| chaotic |
9.70
|
| coefficient of non-uniformity of |
2.2.44
|
| concealed |
3.3.8
|
| frame |
2.2.5
|
| global |
9.71
|
| inverse |
2.2.4
|
| local |
9.72
|
| Newton’s first law of |
3.4.14
|
| Newton’s second law of |
3.4.15
|
| Newton’s third law of |
3.4.16
|
| period of |
2.2.46
|
| periodic |
2.2.45
|
| pilgrim-step |
2.2.53
|
| planar |
2.2.33
|
| plane |
2.2.33
|
| quasistatic |
7.28
|
| quasistatic, (of a machine) |
7.23
|
| relative |
2.2.3
|
| rolling |
2.2.37
|
| screw |
2.2.35
|
| simple harmonic |
2.2.48
|
| sliding |
2.2.39
|
| spatial |
2.2.34
|
| spherical |
2.2.36
|
| spin |
2.2.38
|
| stability of |
10.8
|
| steady |
7.30
|
| steady-state (of a machine) |
2.2.42
|
| step |
2.2.50
|
| transient (of a machine) |
7.24
|
| uniform |
2.2.43
|
| Motoneuron |
11.2.28
|
| Motor end-plate |
11.2.29
|
| Motor trolley |
14.2.10
|
| Motor unit |
11.2.30
|
| Moving |
|
| - axode |
2.3.13
|
| - centrode |
2.3.9
|
| Multicipital muscle |
11.2.45
|
| Multi-degree-of-freedom system |
3.8.18
|
| Multifunctionality |
13.3.15
|
| Multijoint muscle |
11.2.46
|
| Multi-layered structure |
3.6.26
|
| Multimodal transport |
14.5.7
|
| Multiple sensors |
13.2.14
|
| Multi-trailer |
14.4.20
|
| Muscle |
11.2.31
|
| - co-operating problem |
11.2.18
|
| - fibre, fast twitch |
11.2.32
|
| - fibre, slow twitch |
11.2.33
|
| - insertion |
11.2.44
|
| - origin |
11.2.49
|
| - spindle |
11.2.34
|
| Muscle, |
11.2.31
|
| agonistic |
11.2.35
|
| anatomical cross-sectional area of |
11.2.36
|
| antagonistic |
11.2.37
|
| bicipital |
11.2.38
|
| bipenniform |
11.2.39
|
| cardiac |
11.2.40
|
| digastric |
11.2.41
|
| feathered |
11.2.42
|
| fusiform |
11.2.43
|
| insertion of |
11.2.44
|
| involuntary |
11.2.52
|
| multicipital |
11.2.45
|
| multijoint |
11.2.46
|
| negative work of |
11.2.47
|
| orbicular |
11.2.48
|
| origin of |
11.2.49
|
| physiol. Cross-sectional area (PCA) of |
11.2.50
|
| positive work of |
11.2.51
|
| skeletal |
11.2.53
|
| smooth |
11.2.52
|
| striated |
11.2.53
|
| synergistic |
11.2.54
|
| unipennate |
11.2.55
|
| visceral |
11.2.52
|
| voluntary |
11.2.53
|
| Nanomechatronics |
13.1.8
|
| Natural |
|
| - frequency |
3.9.39
|
| - frequency map |
8.37
|
| - mode |
3.9.28
|
| Negative |
|
| - damping |
9.28
|
| - work of muscle |
11.2.47
|
| Network, neural |
13.2.11
|
| Neural network |
13.2.11
|
| Neutral |
|
| - axis |
3.5.42
|
| - car |
14.1.14
|
| - equilibrium |
3.7.37
|
| Newtonian fluid |
11.1.20
|
| Newton’s |
|
| - first law (of motion) |
3.4.14
|
| - second law (of motion) |
3.4.15
|
| - third law (of motion) |
3.4.16
|
| Nodal point |
8.53
|
| Nodal point (14) |
14.5.39
|
| Node |
3.9.32
|
| - point |
8.53
|
| Noise, |
6.17
|
| effective |
9.8
|
| white |
9.73
|
| Nominal |
|
| - bandwidth |
9.9
|
| - flank |
12.1.54
|
| Non-conservative force |
3.2.73
|
| Non-holonomic |
|
| - constraint |
3.7.28
|
| - system |
3.8.9
|
| Non-linear |
|
| - system |
7.37
|
| - vibration |
9.118
|
| Non-rotating rope |
14.2.50
|
| Non-symmetric rotor |
8.66
|
| Normal |
|
| - acceleration |
2.2.15
|
| - base pitch |
12.1.67
|
| - mode |
3.9.28
|
| - mode of vibration |
3.9.28
|
| - module |
12.1.69
|
| - reaction |
3.2.6
|
| - stress |
3.5.31
|
| - thread profile |
12.1.76
|
| - tooth profile |
12.1.76
|
| - vibration |
3.9.20
|
| Normal, contact |
12.2.16
|
| Notch flexure hinge |
16.22
|
| Number, impact |
9.74
|
| Nutation |
2.2.31
|
| nX component |
8.110
|
| Nyquist |
|
| - plot |
8.47
|
| - plot* |
8.48
|
| Oblique impact |
3.5.59
|
| Obstacle mapping |
5.3.29
|
| Octave |
9.75
|
| Octoid |
|
| - gear |
12.4.21
|
| - gear pair |
12.4.28
|
| - meshing |
12.4.13
|
| Octopod |
11.4.42
|
| Off-line programming |
5.5.3
|
| Offset |
|
| - error |
4.2.15
|
| - of tooth trace |
12.5.28
|
| Oil |
|
| - whip |
8.108
|
| - whirl |
8.108
|
| Open |
|
| - kinematic chain |
1.3.7
|
| - pair |
1.2.7
|
| Open-loop |
|
| - control |
4.1.28
|
| - harmonic response |
4.1.12
|
| Opposite flanks |
12.1.56
|
| Opposite pole |
2.3.28
|
| Opposite-pole quadrilateral |
2.3.29
|
| Orbicular muscle |
11.2.48
|
| Orbit |
8.42
|
| Orbital stability |
10.17
|
| Orbiting |
8.54
|
| Order, critical speed of the second |
8.79
|
| Organ |
11.1.33
|
| Organism |
11.1.34
|
| Orientation |
5.3.20
|
| Origin of muscle |
11.2.49
|
| Oscillation |
3.9.6
|
| Osmosis |
11.1.35
|
| Ostraciiform locomotion |
11.4.34
|
| Outer race |
8.60
|
| Output |
6.16
|
| - link |
1.1.4
|
| - torque |
3.2.43
|
| Outreach |
14.2.20
|
| Overall data |
8.15
|
| Overlap length |
12.1.82
|
| Overlap ratio |
12.1.83
|
| Overshoot |
4.2.12
|
| Oversteer |
14.4.11
|
| Pace |
11.4.43
|
| Pair, |
|
| cam |
1.2.17
|
| cylindrical |
1.2.14
|
| force-closed |
1.2.7
|
| form-closed |
1.2.8
|
| gear |
1.2.20
|
| helical |
1.2.13
|
| higher |
1.2.10
|
| kinematic |
1.2.3
|
| lower |
1.2.9
|
| open |
1.2.7
|
| planar contact |
1.2.16
|
| prismatic |
1.2.12
|
| revolute |
1.2.11
|
| sandwich |
1.2.16
|
| screw |
1.2.13
|
| spherical |
1.2.15
|
| Pairing element |
1.2.4
|
| Pallet, |
14.5.10
|
| euro |
14.5.11
|
| industry |
14.5.12
|
| Palmar |
11.5.17
|
| Parallel |
|
| - elastic component |
11.2.5
|
| - force system |
3.2.48
|
| - helical gear pair |
12.3.13
|
| - lay rope |
14.2.48
|
| - manipulator |
5.2.14
|
| Parallel-crank mechanism |
1.3.34
|
| Parameter |
7.25
|
| - control |
9.76
|
| Parametric |
|
| - excitation |
9.44
|
| - resonance |
9.89
|
| - vibration |
9.119
|
| Partial vibration system |
7.38
|
| Particle, |
3.7.1
|
| kinetic energy of |
3.3.16
|
| mass of |
3.7.2
|
| potential energy of |
3.3.13
|
| Passive |
|
| - accommodation |
5.5.5
|
| - device |
6.19
|
| - stretching |
11.2.60
|
| - system |
6.19
|
| Path |
2.3.1
|
| Path-generating mechanism |
1.3.22
|
| Pawl |
1.1.49
|
| Payload |
14.5.6
|
| Peak value |
6.9
|
| Peak-to-peak value |
3.9.13
|
| Pedal locomotion |
11.4.35
|
| Pedipulator |
5.1.12
|
| Pendant, teach |
5.2.12
|
| Pendulum, |
|
| compound |
3.8.5
|
| double |
3.8.6
|
| simple |
3.8.3
|
| spherical |
3.8.4
|
| Pennate fibre arrangement |
11.2.21
|
| Perception system |
13.2.22
|
| Percussion, centre of |
3.5.67
|
| Period |
3.9.2
|
| - doubling |
9.33
|
| - of a motion |
2.2.46
|
| Period, |
|
| compression |
3.5.64
|
| restitution |
3.5.65
|
| Periodic |
|
| - motion |
2.2.45
|
| - attractor |
9.6
|
| - vibration |
9.120
|
| Peristaltic locomotion |
11.4.36
|
| Permanent |
|
| - load |
3.2.61
|
| - set |
3.5.18
|
| Perturbation |
3.3.9
|
| Perturbed state |
10.22
|
| Phase |
|
| - angle |
2.2.49
|
| - crossover |
4.1.18
|
| - difference (of harmonic vibrations) |
9.96
|
| - margin |
4.1.19
|
| - plane |
9.98
|
| - portrait |
9.83
|
| - resonant frequency |
9.60
|
| - shift (of harmonic vibrations) |
9.96
|
| - space |
9.98
|
| - spectrum plot |
8.49
|
| - trajectory |
9.107
|
| Phase, |
|
| loop |
4.1.14
|
| recovery |
11.4.45
|
| stand |
11.4.44
|
| support |
11.4.44
|
| swing |
11.4.45
|
| Phase-frequency characteristic |
9.21
|
| Phenomenon, synchronization |
9.77
|
| Physical model |
6.26
|
| Physiological |
|
| - cross-sectional area (PCA) of muscle |
11.2.50
|
| Pickup |
8.92
|
| Pick-and-place robot |
5.1.6
|
| Piezoelectric material |
8.39
|
| Pilgrim-step |
|
| - mechanism |
1.3.24
|
| - motion |
2.2.53
|
| Pin |
12.1.93
|
| Pin joint |
1.2.19
|
| Pin, king |
14.4.21
|
| Pinch zone |
5.3.16
|
| Pinion |
1.1.36
|
| Pitch (14) |
14.1.21
|
| Pitch |
2.2.59
|
| - circle |
12.2.24
|
| - cone |
12.4.1
|
| - cone angle |
12.4.2
|
| - cylinder |
12.2.25
|
| - diameter |
12.1.49
|
| - line |
12.2.15
|
| - plane |
12.2.27
|
| - point |
12.2.12
|
| - surface |
12.2.22
|
| Pitch, |
|
| angular |
12.1.64
|
| axial |
12.1.74
|
| base |
12.1.67
|
| circular |
12.1.65
|
| diametral |
12.1.66
|
| normal base |
12.1.67
|
| transverse circular |
12.1.65
|
| Pivot, flexural |
16.20
|
| Pivot |
1.1.46
|
| - joint |
11.3.22
|
| - line |
14.4.3
|
| Pivot-point curve |
2.3.22
|
| Pivoting friction |
3.5.46
|
| Planar |
|
| - contact joint |
11.3.20
|
| - contact pair |
1.2.16
|
| - mechanism |
1.3.17
|
| - motion |
2.2.33
|
| - system |
3.8.13
|
| Plane motion |
2.2.33
|
| Plane, |
|
| axial |
12.2.26
|
| datum |
12.1.31
|
| frontal |
11.5.18
|
| median |
11.5.19
|
| phase |
9.98
|
| pitch |
12.2.27
|
| principal |
12.2.29
|
| sagittal |
11.5.20
|
| state |
9.98
|
| tangent |
12.2.30
|
| transverse (11) |
11.5.21
|
| transverse (12) |
12.2.28
|
| Planes, cardinal |
11.5.22
|
| Planet |
|
| - carrier |
12.6.9
|
| - gear |
1.1.35
|
| Planetary gear |
1.1.35
|
| Plantar |
11.5.23
|
| Plastic |
|
| - deformation |
3.5.18
|
| - strain |
3.5.18
|
| Plasticity |
3.5.6
|
| Plate, |
|
| buckling of |
3.5.25
|
| deflection of |
3.5.24
|
| middle surface of |
3.6.22
|
| thick |
3.6.19
|
| thin |
3.6.20
|
| Playback |
|
| - accuracy |
5.3.23
|
| - robot |
5.1.9
|
| Plot, |
|
| amplitude spectrum |
8.49
|
| Bode (8) |
8.43
|
| Bode (9) |
9.78
|
| Campbell (8) |
8.44
|
| Campbell (9) |
9.79
|
| cascade spectrum (8) |
8.45
|
| cascade spectrum (9) |
9.67
|
| cascade* |
9.67
|
| full spectrum |
8.46
|
| Lissajous |
8.42
|
| Nyquist |
8.47
|
| Nyquist* |
8.48
|
| phase spectrum |
8.49
|
| polar |
8.48
|
| power spectrum |
8.49
|
| spectrum (cascade) |
8.45
|
| time-base |
8.50
|
| trend |
8.51
|
| unbalance response* |
8.43
|
| waterfall (8) |
8.52
|
| waterfall (9) |
9.67
|
| waveform |
8.50
|
| Pneumatic trail |
14.4.6
|
| Poincaré |
|
| - map |
9.91
|
| - section |
9.91
|
| - stability in the sense of |
10.17
|
| Poinsot ellipsoid |
3.7.16
|
| Point |
|
| - attractor |
9.7
|
| - of action of a force |
7.26
|
| - of contact |
12.2.11
|
| - mass |
3.7.1
|
| Point, |
|
| Ball |
2.3.23
|
| Burmester |
2.3.34
|
| centre |
2.3.32
|
| circle |
2.3.30
|
| coupler |
2.3.24
|
| dead |
2.2.57
|
| equilibrium |
9.80
|
| fixed |
9.80
|
| hyperbolic |
9.81
|
| inflection |
2.3.19
|
| moment of a force about |
3.2.35
|
| nodal |
8.53
|
| node |
8.53
|
| pitch |
12.2.12
|
| reference |
5.3.15
|
| saddle |
9.82
|
| yield |
11.1.36
|
| Point-to-point control |
5.4.3
|
| Polar |
|
| - moment of inertia of a body |
3.7.9
|
| - moment of inertia of a lamina |
3.7.8
|
| - plot |
8.48
|
| Pole |
2.3.14
|
| - triangle |
2.3.26
|
| - velocity |
2.3.16
|
| Pole, |
|
| image |
2.3.27
|
| mirror |
2.3.27
|
| opposite |
2.3.28
|
| Portrait, |
|
| phase |
9.83
|
| state |
9.83
|
| Pose |
5.3.21
|
| Pose-to-pose control |
5.4.4
|
| Position, |
|
| angle, of a rotor |
8.67
|
| close-packed |
11.3.28
|
| limit |
2.2.58
|
| limit, of a link |
1.3.16
|
| limit, of a mechanism |
1.3.15
|
| stability of |
10.16
|
| Positional accuracy |
5.3.22
|
| Position-force control |
5.4.12
|
| Positive work of muscle |
11.2.51
|
| Posterior |
11.5.24
|
| Potential |
6.7
|
| - energy of a particle |
3.3.13
|
| - energy of a system |
3.3.14
|
| Potential, kinetic |
3.3.12
|
| Power |
3.3.23
|
| - of a force |
3.3.24
|
| - spectral density |
9.31
|
| - spectrum plot |
8.49
|
| - stroke |
11.4.44
|
| Power, |
|
| effective |
3.3.25
|
| useful |
3.3.25
|
| Practical stability |
10.18
|
| PRB |
16.18
|
| Precession (2) |
2.2.29
|
| Precession (8) |
8.54
|
| Precession, |
|
| backward |
8.55
|
| forward |
8.56
|
| regular |
2.2.30
|
| reverse |
8.55
|
| subsynchronous |
8.57
|
| supersynchronous |
8.57
|
| synchronous |
8.58
|
| Precision |
4.2.2
|
| Prehension |
11.4.46
|
| Pressure angle |
7.3
|
| - of a gear |
12.2.8
|
| - of a gear pair |
12.2.9
|
| - working |
12.2.9
|
| Prestress |
11.3.29
|
| Primary |
|
| - axes |
5.3.9
|
| - feedback |
4.1.7
|
| Prime |
|
| - mover |
3.1.3
|
| - spike |
8.82
|
| Principal |
14.5.30
|
| - axis of inertia |
3.7.11
|
| - moment of inertia |
3.7.12
|
| - plane |
12.2.29
|
| Principle |
|
| - of conservation of energy |
3.4.2
|
| - of conservation of moment of momentum |
3.4.6
|
| - of conservation of momentum |
3.4.4
|
| - of energy |
3.4.1
|
| - of moment of momentum |
3.4.5
|
| - of momentum |
3.4.3
|
| - of motion of centre of mass |
3.4.7
|
| - of virtual work |
3.4.9
|
| Principle, |
|
| Ackermann |
14.4.2
|
| d’Alembert’s |
3.4.10
|
| Hamilton’s |
3.4.11
|
| superposition |
3.4.8
|
| Prismatic pair |
1.2.12
|
| Probe |
8.59
|
| Process (signal) |
3.7.48
|
| Process, |
6.25
|
| ergodic |
3.7.51
|
| random |
3.7.49
|
| stationary |
3.7.50
|
| stochastic |
3.7.49
|
| Processing |
13.3.16
|
| Product of inertia |
3.7.10
|
| Product, smart |
13.2.5
|
| Profile, |
|
| axial thread |
12.1.77
|
| axial tooth |
12.1.77
|
| basic rack tooth |
12.1.23
|
| normal thread |
12.1.76
|
| normal tooth |
12.1.76
|
| standard basic rack tooth |
12.1.23
|
| thread |
12.1.78
|
| tooth |
12.1.78
|
| transverse thread |
12.1.78
|
| transverse tooth |
12.1.78
|
| usable |
12.1.79
|
| Programmable manipulator |
5.1.17
|
| Programming, |
|
| off-line |
5.5.3
|
| teach-in |
5.5.1
|
| Pronation (5) |
5.3.17
|
| Pronation (11) |
11.4.47
|
| Pronk |
11.4.48
|
| Proper vector |
3.9.28
|
| Proportional |
|
| - control |
4.1.30
|
| - bandwidth filter |
9.51
|
| - damping |
9.29
|
| Propulsive drag |
11.4.11
|
| Prosthetic device |
5.1.20
|
| Protraction |
11.4.49
|
| Proximal (5) |
5.5.6
|
| Proximal (11) |
11.5.25
|
| Proximity |
|
| - sense |
5.5.13
|
| - transducer |
8.95
|
| Pseudo joint |
16.19
|
| Pseudoplastic fluid |
11.1.21
|
| Pseudo-rigid body model |
16.18
|
| Pulley |
1.1.41
|
| Pulsating load |
3.2.65
|
| Q-factor |
3.9.37
|
| Quadrature dynamic stiffness |
8.89
|
| Quadrilateral, opposite-pole |
2.3.29
|
| Quadruped |
11.4.50
|
| Quality factor |
3.9.37
|
| Quantity, |
7.27
|
| scalar |
6.1
|
| simple harmonic |
3.9.8
|
| vector |
6.3
|
| Quasi-involute bevel |
|
| - gear |
12.4.21
|
| - gear pair |
12.4.28
|
| - meshing |
12.4.13
|
| Quasiperiodic vibration |
9.113
|
| Quasistatic |
|
| - motion |
7.28
|
| - motion (of a machine) |
7.23
|
| - regime |
7.28
|
| - regime (of a machine) |
7.23
|
| - state |
7.28
|
| Race, outer |
8.60
|
| Rack (1) |
1.1.37
|
| Rack (11) |
11.4.43
|
| Rack, basic |
12.1.24
|
| Rack, counterpart |
12.1.25
|
| Rack and pinion train |
12.2.5
|
| Rack-and-worm gear pair |
12.5.10
|
| Radial |
|
| - direction |
8.18
|
| - vibration |
8.99
|
| Radius of gyration |
3.7.15
|
| Rail loading gauge |
14.1.28
|
| Random |
|
| - process |
3.7.49
|
| - vibration |
3.9.18
|
| Range, |
|
| dynamic |
9.84
|
| working |
5.3.13
|
| Ratchet |
1.1.51
|
| Rate-independent linear damping |
9.27
|
| Ratio, |
|
| actuating signal |
4.1.10
|
| control |
4.1.11
|
| damping |
3.9.44
|
| eccentricity |
8.22
|
| error signal |
4.1.10
|
| fluid average circumferential velocity |
8.26
|
| gear |
2.2.56
|
| loop |
4.1.12
|
| overlap |
12.1.83
|
| signal-to-noise |
8.75
|
| slenderness of a bar |
3.5.27
|
| stress |
14.2.42
|
| transmission |
2.2.55
|
| transverse contact |
12.2.32
|
| Raw data |
8.15
|
| Rayleigh dissipation function |
3.2.76
|
| Reach stacker |
14.2.30
|
| Reaction, |
3.2.5
|
| normal |
3.2.6
|
| tangential |
3.2.7
|
| Real time analyzer |
8.4
|
| Reasoning |
13.3.17
|
| Receptance, |
|
| cross |
3.7.33
|
| direct |
3.7.32
|
| Recovery phase |
11.4.45
|
| Recruitment |
11.2.56
|
| Rectilinear translation |
2.2.26
|
| Recurrent state |
9.103
|
| Reduced |
|
| - force |
3.2.27
|
| - mass of a mechanism |
3.7.6
|
| - moment |
3.2.44
|
| Redundancy, |
13.3.18
|
| active |
13.3.19
|
| standby |
13.3.20
|
| Redundant mobility |
5.3.7
|
| - of a robot |
5.3.7
|
| Reefer |
14.5.18
|
| Reference |
|
| - back cone |
12.4.9
|
| - centre distance |
12.2.2
|
| - circle |
12.1.41
|
| - cone |
12.4.3
|
| - cone angle |
12.4.4
|
| - cone apex |
12.4.10
|
| - cone distance |
12.4.11
|
| - cylinder |
12.1.43
|
| - data |
8.16
|
| - diameter |
12.1.42
|
| - input |
4.1.3
|
| - point |
5.3.15
|
| - surface |
12.1.35
|
| Regime, |
|
| quasistatic |
7.28
|
| quasistatic, of a machine |
7.23
|
| starting, of a machine |
2.2.40
|
| steady |
7.30
|
| stopping, of a machine |
2.2.41
|
| transient, of a machine |
7.24
|
| Region, |
|
| acceptance |
8.1
|
| rotor vibration |
8.69
|
| Regular lay |
14.2.52
|
| Regular precession |
2.2.30
|
| Regulator |
4.3.7
|
| Relative |
|
| - acceleration |
2.2.18
|
| - coordinate system |
5.3.2
|
| - displacement |
2.2.7
|
| - force |
3.2.12
|
| - motion |
2.2.3
|
| - transducer |
8.96
|
| - velocity |
2.2.11
|
| - vibration |
8.100
|
| Relativity, Galileo’s law of |
3.4.12
|
| Relaxation |
|
| - function |
14.3.10
|
| - spectrum |
14.3.11
|
| - time |
6.13
|
| Remote centre compliance |
5.2.13
|
| Repellor |
9.85
|
| Resistant |
|
| - force |
7.14
|
| - moment |
7.14
|
| Resolution |
4.2.7
|
| Resolution, infinite |
4.2.8
|
| Resolved-motion rate control |
5.4.7
|
| Resonance |
3.9.3
|
| - curve |
9.24
|
| - frequency |
3.9.35
|
| - speed, balance* |
8.78
|
| Resonance, |
|
| combination |
9.86
|
| extraparametric |
9.87
|
| internal |
9.88
|
| parametric |
9.89
|
| Resonant speed |
8.78
|
| Response plot, unbalance* |
8.43
|
| Response time |
4.1.21
|
| Response, |
|
| complex |
3.7.42
|
| subharmonic |
3.7.43
|
| time |
4.1.20
|
| Restitution period |
3.5.65
|
| Restitution, coefficient of |
3.5.66
|
| Restoring |
|
| - force |
7.15
|
| - moment |
7.15
|
| Resultant |
|
| - force |
3.2.47
|
| - moment |
3.2.39
|
| Retardation |
2.2.23
|
| Retraction |
11.4.51
|
| Return stroke |
11.4.45
|
| Reverse |
|
| - lay |
14.2.54
|
| - precession |
8.55
|
| - whip |
8.55
|
| - whirl |
8.55
|
| Reversible compliance |
16.16
|
| Revolute pair |
1.2.11
|
| Revolution, frequency of |
8.80
|
| Revolutions |
8.80
|
| RFID |
14.5.28
|
| Rheonomic |
|
| - constraint |
3.7.25
|
| - system |
3.8.10
|
| Rheopectic fluid |
11.1.22
|
| Right flank |
12.1.51
|
| Right lay |
14.2.47
|
| Rigid body |
3.6.1
|
| Rigidity, |
|
| flexural |
3.5.14
|
| longitudinal |
3.5.12
|
| modulus of |
3.5.15
|
| torsional |
3.5.13
|
| Ring gear |
12.6.7
|
| Ring, tooth |
12.1.80
|
| Rise time |
4.1.22
|
| Rms value |
6.11
|
| Road train |
14.4.20
|
| Road, rolling |
14.5.24
|
| Robot |
5.1.2
|
| - system |
5.1.19
|
| Robot, |
|
| anthropomorphic |
5.1.4
|
|
5.3.6
|
| cylindrical coordinate |
5.3.6
|
| fixed-stop |
5.1.7
|
| intelligent |
5.1.8
|
| mobile |
5.1.10
|
| pick-and-place |
5.1.6
|
| playback |
5.1.9
|
| redundant mobility of |
5.3.7
|
| spherical coordinate |
5.3.6
|
| Robotics |
5.1.1
|
| Robustness |
13.3.21
|
| Rocker |
1.1.8
|
| Rod |
3.6.6
|
| - drop |
8.20
|
| Rod, connecting |
1.1.14
|
| Roll |
14.1.19
|
| - run-out, slow |
8.73
|
| - speed, slow |
8.82
|
| Roll (idler) |
14.3.2
|
| Roller support |
3.6.30
|
| Rolling |
|
| - element bearing |
8.10
|
| - friction |
3.5.45
|
| - load |
3.2.66
|
| - motion |
2.2.37
|
| - road |
14.5.24
|
| Roll-off |
8.61
|
| Root |
|
| - circle |
12.1.45
|
| - cone |
12.4.5
|
| - cone angle |
12.4.6
|
| - cylinder |
12.1.44
|
| - surface |
12.1.33
|
| Root-mean-square value |
6.11
|
| Rope |
|
| - lay length |
14.2.55
|
| - strength efficiency |
14.2.56
|
| - trolley |
14.2.8
|
| Rope, |
|
| cross lay |
14.2.49
|
| equal lay |
14.2.48
|
| non-rotating |
14.2.50
|
| parallel lay |
14.2.48
|
| rotation-free |
14.2.51
|
| rotation resistant |
14.2.50
|
| semi-balanced |
14.2.51
|
| wire |
14.2.44
|
| RORO |
14.5.23
|
| Rotary component |
11.2.6
|
| Rotary gallop |
11.4.19
|
| Rotating |
|
| - body, dynamic balance of |
3.2.56
|
| - body, static balance of |
3.2.55
|
| - machine, stability of a |
8.86
|
| - stall |
8.87
|
| Rotation-free rope |
14.2.51
|
| Rotation resistant rope |
14.2.50
|
| Rotation, |
2.2.27
|
| angle of |
2.2.28
|
| axis of |
2.3.2
|
| Rotative speed |
8.80
|
| Rotor |
8.62
|
| - attitude angle |
8.67
|
| - mode (shape), forced |
8.64
|
| - mode (shape), free |
8.65
|
| - position angle |
8.67
|
| - speed |
8.80
|
| - vibration region |
8.69
|
| Rotor, |
|
| anisotropic |
8.66
|
| anisotropicly supported |
8.63
|
| balancing of |
8.8
|
| isotropic |
8.68
|
| nonsymmetric |
8.66
|
| symmetric |
8.68
|
| Running gait |
11.4.15
|
| Run-out compensation |
8.70
|
| Run-out, |
|
| electrical |
8.71
|
| mechanical |
8.72
|
| slow roll |
8.73
|
| Saddle |
|
| - joint |
11.3.21
|
| - point |
9.82
|
| Saddle-node bifurcation |
9.15
|
| Sagittal |
|
| - axis |
11.5.4
|
| - plane |
11.5.20
|
| Sampling, stroboscopic |
9.90
|
| Sandwich |
|
| - pair |
1.2.16
|
| - structure |
3.6.25
|
| Sarcomere |
11.2.57
|
| Scalar |
6.1
|
| - quantity |
6.1
|
| Scale |
|
| - effect |
13.3.22
|
| - factor |
4.2.20
|
| - model |
6.27
|
| Scale, full |
4.2.18
|
| Sceleronomic |
|
| - constraint |
3.7.26
|
| - system |
3.8.11
|
| Scheduling |
13.3.23
|
| Scissors grab |
14.2.13
|
| Scotch-yoke mechanism |
1.3.38
|
| Screw |
|
| - axis |
2.3.4
|
| - axis, instantaneous |
2.3.5
|
| - mechanism |
1.3.40
|
| - motion |
2.2.35
|
| - pair |
1.2.13
|
| Second order, critical speed of the |
8.79
|
| Second type hyperboloid gear pair |
12.5.5
|
| Secondary axes |
5.3.10
|
| Section, Poincaré |
9.91
|
| Segment |
16.4
|
| Segment of a compliant body |
16.4
|
| Seismic transducer |
8.97
|
| Self-assembly |
13.3.24
|
| Self-diagnosis |
13.3.25
|
| Self-excitation |
9.92
|
| Self-excited vibration |
9.121
|
| Self-locking mechanism |
1.3.27
|
| Self-improvement |
13.3.26
|
| Self-induced vibration |
9.121
|
| Self-maintenance |
13.3.27
|
| Self-organization |
13.3.28
|
| Self-organizing system |
13.2.23
|
| Self-regulation |
13.3.29
|
| Self-repair |
13.3.30
|
| Self-tuning |
13.3.31
|
| Semaphore |
14.5.29
|
| Semi-balanced rope |
14.2.51
|
| Semi-trailer |
14.4.18
|
| Sender |
14.5.32
|
| Sense, |
|
| force |
5.5.11
|
| proximity |
5.5.13
|
| slip |
5.5.12
|
| tactile |
5.5.10
|
| Sensing |
13.3.32
|
| Sensitivity |
4.2.3
|
| Sensor (4) |
4.3.21
|
| Sensor (8) |
8.92
|
| Sensor, |
|
| fusion |
13.2.12
|
| intelligent |
13.2.13
|
| multiple |
13.2.14
|
| visual |
5.5.14
|
| Sensory control |
5.4.9
|
| Separatrix |
9.93
|
| Sequential control |
5.4.6
|
| Series elastic component |
11.2.7
|
| Serpentine locomotion |
11.4.37
|
| Service, feeder |
14.5.41
|
| Servosystem |
4.3.5
|
| Set, permanent |
3.5.18
|
| Settling time |
4.1.23
|
| Severity, |
|
| vibration |
9.94
|
| vibration, (of a machine) |
9.95
|
| Servomechanism |
4.3.6
|
| Shaft angle |
12.2.10
|
| Shaft, |
8.74
|
| cardan |
1.1.45
|
| drive |
1.1.44
|
| Shake |
5.3.25
|
| Shaking force |
3.2.29
|
| Shear |
|
| - centre |
3.5.39
|
| - force |
3.2.25
|
| - modulus |
3.5.15
|
| - strain |
3.5.22
|
| - stress |
3.5.32
|
| - velocity |
11.1.37
|
| - wave |
3.9.49
|
| Shearing |
|
| - force |
3.2.25
|
| Shell, cylindrical |
3.6.24
|
| Shift, modal |
14.5.3
|
| Shift, phase (of harmonic vibration) |
9.96
|
| Shimmy |
14.4.15
|
| Shipper |
14.5.32
|
| Shipping, short sea |
14.5.38
|
| Shock |
|
| - (response) spectrum |
9.101
|
| - wave |
3.9.50
|
| Shock, mechanical |
3.5.53
|
| Short sea shipping |
14.5.38
|
| Shoulder |
5.2.3
|
| Signal |
6.14
|
| Signal, |
|
| actuating |
4.1.8
|
| error |
4.1.8
|
| frequency-modulated |
4.1.6
|
| Signal-to-noise ratio |
8.75
|
| Signature (of a machine) |
9.97
|
| Similar type coaxial surface |
12.1.36
|
| Simple pendulum |
3.8.3
|
| - harmonic motion |
2.2.48
|
| - harmonic quantity |
3.9.8
|
| - support |
3.6.28
|
| Simply-supported beam |
3.6.14
|
| Simulation, logistic |
14.5.26
|
| Single axis cross-flexure joint |
16.28
|
| Single enveloping |
|
| - worm |
12.5.12
|
| - worm gear pair |
12.5.8
|
| Singlefoot |
11.4.52
|
| - in diagonal sequence |
11.4.53
|
| - in lateral sequence |
11.4.54
|
| Single-space rotation hyperboloid |
12.1.9
|
| Singular configuration |
5.3.28
|
| Sinusoidal vibration |
3.9.14
|
| Skeletal muscle |
11.2.53
|
| Skeleton curve |
9.23
|
| Skeleton, |
11.3.30
|
| cyto- |
11.3.31
|
| endo- |
11.3.32
|
| exo- |
11.3.33
|
| hydro- |
11.3.34
|
| hydrostatic |
11.3.34
|
| Skew |
14.1.15
|
| Skew bevel |
|
| - gear |
12.4.15
|
| - gear pair |
12.4.26
|
| Skew tooth |
12.1.63
|
| Slenderness ratio of a bar |
3.5.27
|
| Slider |
1.1.10
|
| Slider-crank mechanism |
1.3.36
|
| Sliding |
|
| - block |
1.1.11
|
| - friction |
3.5.44
|
| - motion |
2.2.39
|
| - theory of muscle contraction |
11.2.58
|
| Slip angle |
14.4.9
|
| Slip sense |
5.5.12
|
| Slow |
|
| - roll run-out |
8.73
|
| - roll speed |
8.81
|
| - twitch muscle fibre |
11.2.33
|
| Slew |
14.1.12
|
| Small-length flexural pivot |
16.23
|
| Smart |
|
| - material |
13.2.5
|
| - product |
13.2.5
|
| - system |
13.2.5
|
| Smooth |
|
| - support |
3.6.27
|
| - muscle |
11.2.52
|
| Snubber |
4.3.12
|
| Space, |
|
| joint |
5.3.11
|
| phase |
9.98
|
| state |
9.98
|
| thread |
12.1.70
|
| tooth |
12.1.70
|
| working |
5.3.14
|
| Spall |
8.76
|
| Spalling |
8.76
|
| Span of a beam |
3.6.17
|
| Spatial |
|
| - force system |
3.2.51
|
| - mechanism |
1.3.19
|
| - motion |
2.2.34
|
| - system |
3.8.14
|
| Spectral map |
9.67
|
| Spectrum, |
3.9.12
|
| auto (power) |
9.99
|
| baseline, (of a machine) |
9.100
|
| load |
14.2.39
|
| relaxation |
14.3.11
|
| shock (response) |
9.101
|
| Spectrum class, load |
14.2.41
|
| Spectrum factor, load |
14.2.40
|
| Spectrum plot, |
|
| amplitude |
8.49
|
| cascade |
8.45
|
| full |
8.46
|
| phase |
8.49
|
| power |
8.49
|
| Speed, |
8.77
|
| balance resonance* |
8.78
|
| critical |
3.9.36
|
| critical of the second order |
8.79
|
| resonant |
8.78
|
| rotative |
8.80
|
| rotor |
8.80
|
| slow roll |
8.81
|
| Spherical |
|
| - cam |
1.1.19
|
| - coordinate robot |
5.3.6
|
| - involute |
12.1.7
|
| - involute helicoid |
12.1.13
|
| - involute meshing |
12.4.12
|
| - joint |
11.3.16
|
| - mechanism |
1.3.18
|
| - motion |
2.2.36
|
| - pair |
1.2.15
|
| - pendulum |
3.8.4
|
| Spike, prime |
8.82
|
| Spin |
8.83
|
| - friction |
3.5.46
|
| - motion |
2.2.38
|
| Spindle expansion |
8.24
|
| Spiral |
|
| - angle |
12.4.17
|
| - bevel gear |
12.4.16
|
| - bevel gear pair |
12.4.27
|
| - cylindrical gear |
12.1.91
|
| - cylindrical gear pair |
12.3.17
|
| - tooth |
12.1.60
|
| Spiroid |
|
| - gear |
12.5.22
|
| - gear pair |
12.5.6
|
| - worm |
12.5.23
|
| Spot, |
|
| heavy |
8.84
|
| high |
8.85
|
| Spreader |
14.2.18
|
| Spring |
3.6.11
|
| - constant, dynamic |
3.7.46
|
| Springback |
5.3.26
|
| Sprocket wheel |
1.1.43
|
| Spur gear |
1.1.26
|
| Stability |
10.2
|
| - in the large |
10.3
|
| - in the sense of Lagrange |
10.4
|
| - in the sense of Lyapunov |
10.5
|
| - in the sense of Poincaré |
10.17
|
| - in the small |
10.16
|
| - of a form |
10.6
|
| - of a limit cycle |
10.7
|
| - of a position |
10.16
|
| - of a rotating machine |
8.86
|
| - of motion |
10.8
|
| - of the first approximation |
10.9
|
| - of vibration |
10.10
|
| Stability, |
|
| absolute |
10.11
|
| asymptotic |
10.12
|
| BIBO |
10.13
|
| criteria of |
10.1
|
| dynamic |
10.14
|
| gain |
4.2.4
|
| global |
10.15
|
| local |
10.16
|
| orbital |
10.17
|
| practical |
10.18
|
| stochastic |
10.19
|
| structural |
10.20
|
| technical |
10.21
|
| threshold of |
8.91
|
| zero-line |
4.2.6
|
| Stabilizing component |
11.2.8
|
| Stable equilibrium |
3.7.35
|
| Stacker, reach |
14.2.30
|
| Stall, rotating |
8.87
|
| Stance |
11.4.44
|
| Standby redundancy |
13.3.20
|
| Stand phase |
11.4.44
|
| Standard basic rack tooth profile |
12.1.23
|
| Standing wave |
3.9.52
|
| Starting regime of a machine |
2.2.40
|
| State |
|
| - of a dynamical system |
9.102
|
| - plane |
9.98
|
| - portrait |
9.83
|
| - space |
9.98
|
| - trajectory |
9.107
|
| - variables (of a dynamical system) |
9.111
|
| - vector |
9.112
|
| State, |
|
| perturbed |
10.22
|
| quasistatic |
7.28
|
| recurrent |
9.103
|
| static |
7.29
|
| steady |
7.30
|
| Static |
|
| - balance |
3.2.55
|
| - drive characteristic |
7.7
|
| - error band |
4.2.16
|
| - friction |
3.5.47
|
| - friction, coefficient of |
3.5.50
|
| - state |
7.29
|
| Statically |
|
| - determinate system |
3.8.15
|
| - indeterminate system |
3.8.16
|
| Statics |
3.1.2
|
| Stationary |
|
| - curvature, cubic of |
2.3.21
|
| - process |
3.7.50
|
| - value |
7.39
|
| Steady |
|
| - motion |
7.30
|
| - regime |
7.30
|
| - state |
7.30
|
| Steady-state |
|
| - error |
4.2.14
|
| - motion of a machine |
2.2.42
|
| - vibration |
3.9.16
|
| Steam |
|
| - whip |
8.109
|
| - whirl |
8.109
|
| Step |
|
| - function |
4.1.24
|
| - length |
11.4.55
|
| - mechanism |
1.3.23
|
| - motion |
2.2.50
|
| Stiffness |
3.5.7
|
| - (coefficient) |
3.5.9
|
| Stiffness, |
|
| bending |
3.5.14
|
| complex dynamic |
9.104
|
| cornering |
14.4.10
|
| cross-coupled dynamic |
8.89
|
| direct dynamic |
8.88
|
| dynamic |
3.7.46
|
| quadrature dynamic |
8.89
|
| Stimulus |
3.7.40
|
| Stochastic |
|
| - force |
3.2.33
|
| - process |
3.7.49
|
| - stability |
10.19
|
| Stop |
1.1.52
|
| Stopping regime of a machine |
2.2.41
|
| Storage modulus |
14.3.7
|
| Straddle carrier |
14.2.29
|
| Straight bevel |
|
| - gear |
12.4.14
|
| - gear pair |
12.4.25
|
| Straight-linear generatrix |
12.1.18
|
| Straight tooth |
12.1.59
|
| Strain |
3.5.16
|
| - energy |
3.3.15
|
| - gauge |
8.30
|
| Strain, |
|
| direct |
3.5.20
|
| elastic |
3.5.17
|
| longitudinal |
3.5.20
|
| plastic |
3.5.18
|
| shear |
3.5.22
|
| Strand |
14.2.45
|
| Strange attractor |
9.5
|
| Strength, ultimate |
3.5.36
|
| Strength efficiency, fabric |
14.3.4
|
| Strength efficiency, rope |
14.2.56
|
| Stress, |
3.5.30
|
| normal |
3.5.31
|
| shear |
3.5.32
|
| Stress ratio |
14.2.42
|
| Stretching, |
|
| active |
11.2.59
|
| passive |
11.2.60
|
| Striated muscle |
11.2.53
|
| Stribeck effect |
14.3.15
|
| Stribeck velocity |
14.3.16
|
| Stride length |
11.4.56
|
| String |
3.6.7
|
| Stripping |
14.5.36
|
| Stroboscope |
4.3.18
|
| Stroboscopic sampling |
9.90
|
| Stroke, |
|
| power |
11.4.44
|
| return |
11.4.45
|
| Structure, |
|
| active |
13.2.7
|
| adjustable |
13.2.15
|
| Structural |
|
| - damping |
9.30
|
| - error |
4.2.11
|
| - stability |
10.20
|
| Structure of a body |
16.1
|
| Structure of a mechanism |
1.3.1
|
| Structure, |
|
| multi-layered |
3.6.26
|
| sandwich |
3.6.25
|
| Strut |
3.6.8
|
| Stuffing |
14.5.36
|
| Sub-assembly |
1.2.1
|
| Subharmonic |
3.9.10
|
| - response |
3.7.43
|
| - vibration |
9.122
|
| Sub-synchronous |
|
| - precession |
8.57
|
| - whip |
8.57
|
| - whirl |
8.57
|
| Sun gear |
12.6.8
|
| Superharmonic vibration |
9.123
|
| Superior |
11.5.26
|
| Superposition principle |
3.4.8
|
| Super-synchronous |
|
| - precession |
8.57
|
| - whip |
8.57
|
| - whirl |
8.57
|
| Supination |
11.4.42
|
| Supply chain |
14.5.1
|
| Support phase |
11.4.44
|
| Support, |
|
| base of |
11.4.58
|
| elastic |
3.6.29
|
| free |
3.6.28
|
| roller |
3.6.30
|
| simple |
3.6.28
|
| smooth |
3.6.27
|
| Surface |
|
| - force |
3.2.21
|
| - of action |
12.2.21
|
| - of a gear, axoidal |
12.2.37
|
| Surface, |
|
| coaxial |
12.1.32
|
| conjugate |
12.2.23
|
| generating |
12.1.19
|
| pitch |
12.2.22
|
| reference |
12.1.35
|
| root |
12.1.33
|
| similar type coaxial |
12.1.36
|
| tip |
12.1.34
|
| working |
12.2.22
|
| Surge |
14.1.18
|
| Swap body |
14.5.20
|
| Sway |
14.1.16
|
| Swing length |
11.4.59
|
| Swing phase |
11.4.45
|
| Symmetric rotor |
8.68
|
| Symmetrical gait |
11.4.16
|
| Synapsis |
11.2.61
|
| Synarthrosis |
11.3.35
|
| Synchronization phenomenon |
9.77
|
| Synchronous |
|
| - vibration |
3.9.22
|
| - precession |
8.58
|
| Synergistic muscle |
11.2.54
|
| Synovia |
11.3.36
|
| Synovial fluid |
11.3.36
|
| Synovial joint |
11.3.9
|
| Synovial membrane |
11.3.37
|
| Synovium |
11.3.37
|
| System |
6.21
|
| - error |
4.2.10
|
| System, |
|
| active |
6.18
|
| adaptive |
13.2.16
|
| architecture of mechatronical |
13.2.17
|
| automatic controller |
13.2.19
|
| automatic control |
4.3.4
|
| autonomous |
7.32
|
| autoparametric |
7.33
|
| base coordinate |
5.3.3
|
| closed-loop control |
4.3.4
|
| cognition |
13.2.18
|
| concurrent force |
3.2.50
|
| continuous |
3.8.19
|
| conservative |
7.34
|
| coplanar |
3.8.13
|
| coplanar force |
3.2.49
|
| deterministic |
7.35
|
| discrete |
3.8.18
|
| dynamical |
7.36
|
| execution |
13.2.20
|
| feedback control |
4.3.4
|
| holonomic |
3.8.8
|
| hyperstatic |
3.8.16
|
| inertial |
3.8.21
|
| invariant |
3.8.12
|
| joint coordinate |
5.3.5
|
| kinetic energy of |
3.3.17
|
| linear |
3.8.17
|
| lumped-parameter |
3.8.18
|
| mechanical |
3.8.2
|
| mechatronical |
13.2.21
|
| multi-degree-of-freedom |
3.8.18
|
| non-holonomic |
3.8.9
|
| nonlinear |
7.37
|
| parallel force |
3.2.48
|
| partial vibration |
7.38
|
| passive |
6.19
|
| perception |
13.2.22
|
| planar |
3.8.13
|
| potential energy of |
3.3.14
|
| relative coordinate |
5.3.2
|
| rheonomic |
3.8.10
|
| robot |
5.1.19
|
| sceleronomic |
3.8.11
|
| self-organizing |
13.2.23
|
| smart |
13.2.5
|
| spatial |
3.8.14
|
| spatial force |
3.2.51
|
| statically determinate |
3.8.15
|
| statically indeterminate |
3.8.16
|
| task coordinate |
5.3.4
|
| technical |
6.22
|
| variable-mass |
3.8.20
|
| world coordinate |
5.3.1
|
| Systematic error |
9.40
|
| Tactile sense |
5.5.10
|
| Tag |
14.5.27
|
| Tangent plane |
12.2.30
|
| Tangent, centrode |
2.3.15
|
| Tangential |
|
| - acceleration |
2.2.16
|
| - reaction |
3.2.7
|
| Task coordinate system |
5.3.4
|
| Task, |
|
| direct |
5.5.8
|
| inverse |
5.5.9
|
| Teach |
|
| - control |
5.4.1
|
| - pendant |
5.2.12
|
| - restrict |
5.5.2
|
| Teach-in programming |
5.5.1
|
| Technical |
|
| - stability |
10.21
|
| - system |
6.22
|
| Teleoperator |
5.1.5
|
| Tendon |
11.3.38
|
| - sheath |
11.3.39
|
| Tensegrity |
11.1.38
|
| Tensile force |
3.2.23
|
| Tension, |
3.5.33
|
| axial |
3.5.34
|
| Tensioner, belt |
14.3.3
|
| Tensor, inertia |
3.7.13
|
| Terrestrial locomotion |
11.4.38
|
| Tetanic contraction |
11.2.15
|
| Tetrapod |
11.4.50
|
| TEU |
14.5.17
|
| Texture |
11.1.39
|
| Theoretical |
|
| - thread trace |
12.1.58
|
| - tooth trace |
12.1.58
|
| Theory, catastrophe |
9.105
|
| Thermocouple |
8.90
|
| Thick plate |
3.6.19
|
| Thread |
|
| - flank |
12.1.50
|
| - profile |
12.1.78
|
| - space |
12.1.70
|
| Thread, worm |
12.1.29
|
| Threshold of |
|
| - instability |
8.91
|
| - stability |
8.91
|
| Thin plate |
3.6.20
|
| Thixotropic fluid |
11.1.23
|
| Tilt |
14.1.13
|
| Time |
|
| - constant |
6.13
|
| - history |
6.12
|
| - response |
4.1.20
|
| Time-base plot |
8.50
|
| Time, |
|
| relaxation |
6.13
|
| response |
4.1.21
|
| rise |
4.1.22
|
| settling |
4.1.23
|
| Tip |
|
| - circle |
12.1.47
|
| - cone |
12.4.7
|
| - cone angle |
12.4.8
|
| - cylinder |
12.1.46
|
| - surface |
12.1.34
|
| Tissue, |
11.1.40
|
| connective |
11.1.41
|
| Tones, combination |
9.106
|
| Tonus |
11.2.62
|
| Tooth |
|
| - fillet |
12.1.57
|
| - flank |
12.1.50
|
| - meshing |
12.1.28
|
| - profile |
12.1.78
|
| - ring |
12.1.80
|
| - space |
12.1.70
|
| Tooth, |
12.1.29
|
| circular |
12.1.62
|
| curvilinear |
12.1.60
|
| gear |
12.1.29
|
| helical |
12.1.61
|
| skew |
12.1.63
|
| spiral |
12.1.60
|
| straight |
12.1.59
|
| Toothed |
|
| - link |
12.1.84
|
| - mechanism |
12.6.2
|
| - ring |
12.1.80
|
| Toothing |
12.1.80
|
| Topliss crane |
14.2.27
|
| Toroid |
12.1.14
|
| Torque |
3.2.41
|
| Torque, |
|
| input |
3.2.42
|
| output |
3.2.43
|
| Torsion |
3.5.19
|
| Torsion, angle of |
3.5.21
|
| Torsional |
|
| - moment |
3.2.41
|
| - rigidity |
3.5.13
|
| - vibration |
3.9.26
|
| Torus, generating |
12.1.22
|
| Tow bar |
14.4.22
|
| Trace, |
|
| theoretical thread |
12.1.58
|
| theoretical tooth |
12. 1.58
|
| thread |
12. 1.58
|
| tooth |
12. 1.58
|
| Track gauge |
14.1.27
|
| Trail, pneumatic |
14.4.6
|
| Trailer, |
14.4.17
|
| multi- |
14.4.20
|
| semi- |
14.4.18
|
| Train, |
|
| differential gear |
12.6.6
|
| gear |
1.3.42
|
| harmonic gear |
12.6.10
|
| rack and pinion |
12.2.5
|
| road |
14.4.20
|
| wave gear |
12.6.10
|
| Trajectory, |
2.3.1
|
| phase |
9.107
|
| state |
9.107
|
| Transducer (4) |
4.3.14
|
| Transducer (8) |
8.92
|
| Transducer, |
|
| displacement |
4.3.15
|
| dual |
8.93
|
| inertial |
8.97
|
| keyphasor |
8.94
|
| proximity |
8.95
|
| relative |
8.96
|
| seismic |
8.97
|
| velocity |
4.3.16
|
| Transfer |
|
| - function (2) |
2.2.54
|
| - function (3) |
3.7.44
|
| - impedance |
7.22
|
| Transform, |
|
| Fourier |
9.108
|
| discrete Fourier |
9.109
|
| fast Fourier (FFT) |
9.110
|
| Transhipment |
14.1.8
|
| Transient |
|
| - error |
4.2.13
|
| - motion (of a machine) |
7.24
|
| - regime (of a machine) |
7.24
|
| - vibration |
3.9.17
|
| Translation |
2.2.25
|
| Translation, rectilinear |
2.2.26
|
| Transmissibility |
3.7.45
|
| Transmission |
|
| - angle |
7.4
|
| - ratio |
2.2.55
|
| Transmission, transverse angle of |
12.2.31
|
| Transmittance |
3.7.44
|
| Transponder |
14.5.27
|
| Transport |
14.1.2
|
| - mode |
14.5.2
|
| - unit |
14.5.4
|
| Transport, |
|
| combined |
14.5.9
|
| intermodal |
14.5.8
|
| means of |
14.1.4
|
| multimodal |
14.5.7
|
| Transportation |
14.1.1
|
| Transportation (2) |
2.2.5
|
| - acceleration |
2.2.19
|
| - force |
3.2.13
|
| - velocity |
2.2.12
|
| Transportational logistics |
14.1.3
|
| Transshipment |
14.1.8
|
| Transverse |
|
| - angle of transmission |
12.2.31
|
| - axis |
11.5.5
|
| - circular pitch |
12.1.65
|
| - contact ratio |
12.2.32
|
| - force |
3.2.25
|
| - gallop |
11.4.20
|
| - impact |
3.5.61
|
| - line of action |
12.3.2
|
| - plane (11) |
11.5.21
|
| - plane (12) |
12.2.28
|
| - thread profile |
12.1.78
|
| - tooth profile |
12.1.78
|
| - vibration (3) |
3.9.25
|
| - vibration (8) |
8.99
|
| - wave |
3.9.47
|
| Tree |
1.3.10
|
| Travel |
14.1.14
|
| Trend |
|
| - data |
8.17
|
| - plot |
8.51
|
| Trial mass |
8.38
|
| Triangle, pole |
2.3.26
|
| Trim |
14.1.22
|
| Trolley, |
14.2.7
|
| full rope |
14.2.9
|
| motor |
14.2.10
|
| rope |
14.2.8
|
| Trochoid joint |
11.3.22
|
| Trot |
11.4.60
|
| Truck, |
14.4.19
|
| fork lift |
14.2.31
|
| Truss |
3.6.12
|
| Turgescence |
11.1.42
|
| Turgor |
11.1.43
|
| Twist |
3.5.19
|
| Twist, |
|
| angle of |
3.5.21
|
| centre of |
3.5.40
|
| Twist-lock, |
14.2.16
|
| semi-automatic |
14.2.17
|
| Twisting moment |
3.2.41
|
| Twitch |
11.2.63
|
| ULD |
14.5.14
|
| Ultimate strength |
3.5.36
|
| Ultraharmonic |
3.9.11
|
| - vibration |
9.123
|
| Unbalance |
8.98
|
| - response plot* |
8.43
|
| Uncoupled modes |
3.9.31
|
| Undershoot |
4.2.12
|
| Understeer |
14.4.11
|
| - coefficient |
14.4.12
|
| - factor |
14.4.12
|
| Undulatory locomotion |
11.4.39
|
| Unfiltered data |
8.15
|
| Uniform |
|
| - load |
3.2.60
|
| - motion |
2.2.43
|
| Uniformly distributed load |
3.2.60
|
| Unilateral constraint |
3.7.21
|
| Unipennate muscle |
11.2.55
|
| Unit, |
|
| load |
14.5.5
|
| loading |
14.5.5
|
| transport |
14.5.4
|
| Universal |
|
| - coupling |
1.2.18
|
| - joint |
1.2.18
|
| Unstable equilibrium |
3.7.36
|
| Upper arm |
5.2.5
|
| Usable |
|
| - flank |
12.1.53
|
| - profile |
12.1.79
|
| Useful power |
3.3.25
|
| Valstar grab |
14.2.12
|
| Value, |
|
| mean-square |
6.10
|
| peak |
6.9
|
| peak-to-peak |
3.9.13
|
| r.m.s |
6.11
|
| root-mean-square |
6.11
|
| stationary |
7.39
|
| Van der Pol equation |
9.39
|
| Vane passing frequency |
8.28
|
| Variable, |
7.40
|
| canonical |
3.3.5
|
| controlled |
4.1.1
|
| dependent |
7.41
|
| Hamiltonian |
3.3.5
|
| independent |
7.42
|
| joint |
5.3.27
|
| manipulated |
4.1.2
|
| Variable compliance |
16.15
|
| Variable-mass system |
3.8.20
|
| Variables, state (of a dyn. System) |
9.111
|
| Vector |
6.2
|
| - field |
6.4
|
| - function |
6.5
|
| - quantity |
6.3
|
| - state |
9.112
|
| Vector, |
|
| direct influence |
8.32
|
| influence |
8.31
|
| latent |
3.9.28
|
| modal |
3.9.28
|
| proper |
3.9.28
|
| Vehicle axle |
14.4.1
|
| Vehicle, articulated |
14.4.19
|
| Velocity |
2.2.9
|
| - hodograph |
6.8
|
| - transducer |
4.3.16
|
| Velocity, |
|
| absolute |
2.2.10
|
| angular |
2.2.13
|
| fluid average circumferential |
8.25
|
| frame |
2.2.12
|
| instantaneous centre of |
2.3.3
|
| pole |
2.3.16
|
| relative |
2.2.11
|
| Stribeck |
14.3.16
|
| transportation |
2.2.12
|
| Ventral |
11.5.27
|
| Vernier |
4.3.13
|
| Vibration |
3.9.1
|
| - isolation |
9.64
|
| - isolator |
9.65
|
| - meter |
9.68
|
| - region, rotor |
8.69
|
| - severity |
9.94
|
| - severity (of a machine) |
9.95
|
| Vibration, |
|
| almost-periodic |
9.113
|
| combined |
9.114
|
| damped |
9.115
|
| decaying |
9.116
|
| divergent |
9.117
|
| forced |
3.9.21
|
| free |
3.9.19
|
| fundamental |
3.9.15
|
| harmonic |
3.9.14
|
| lateral |
8.99
|
| longitudinal |
3.9.24
|
| mode of |
3.9.27
|
| non-linear |
9.118
|
| normal |
3.9.20
|
| normal mode of |
3.9.28
|
| parametric |
9.119
|
| periodic |
9.120
|
| quasiperiodic |
9.113
|
| radial |
8.99
|
| random |
3.9.18
|
| relative |
8.100
|
| self-excited |
9.121
|
| self-induced |
9.121
|
| sinusoidal |
3.9.14
|
| stability of |
10.10
|
| steady-state |
3.9.16
|
| subharmonic |
9.122
|
| superharmonic |
9.123
|
| synchronous |
3.9.22
|
| torsional |
3.9.26
|
| transient |
3.9.17
|
| transverse |
3.9.25
|
| ultraharmonic |
9.123
|
| Vibrations, |
|
| anti-phase |
9.124
|
| in-phase |
9.125
|
| Vibrometer |
9.68
|
| Virtual |
|
| - bevel gear |
12.4.34
|
| - bevel gear pair |
12.4.32
|
| - cylindrical gear |
12.4.33
|
| - cylindrical gear pair |
12.4.31
|
| - deformation |
3.5.29
|
| - displacement |
3.7.39
|
| - work |
3.3.21
|
| - work, principle of |
3.4.9
|
| Visceral muscle |
11.2.52
|
| Viscoelastic |
11.1.44
|
| Viscoelasticity |
11.1.45
|
| Viscosity, |
11.1.46
|
| dynamic |
11.1.47
|
| kinematic |
11.1.48
|
| Viscous damping |
3.9.41
|
| Visual sensor |
5.5.14
|
| Volume, working |
5.3.14
|
| Voluntary muscle |
11.2.53
|
| Walk |
11.4.52
|
| Walking |
|
| - gait |
11.4.17
|
| - machine |
5.1.11
|
| Waterfall |
|
| - diagram* |
8.44
|
| - plot |
8.52
|
| - plot* |
8.44
|
| Wave |
3.9.46
|
| - front |
3.9.53
|
| - gear train |
12.6.10
|
| Wave, |
|
| compression |
3.9.51
|
| filter |
9.45
|
| longitudinal |
3.9.48
|
| shear |
3.9.49
|
| shock |
3.9.50
|
| standing |
3.9.52
|
| transverse |
3.9.47
|
| Waveform plot |
8.50
|
| Wavelength |
3.9.54
|
| Wedge mechanism |
1.3.41
|
| Weight |
3.5.69
|
| Wheel, |
|
| friction |
1.1.39
|
| sprocket |
1.1.43
|
| worm |
1.1.34
|
| Whip, |
8.101
|
| backward |
8.55
|
| dry |
8.100
|
| fluid |
8.103
|
| forward |
8.56
|
| hysteretic |
8.104
|
| oil |
8.108
|
| reverse |
8.55
|
| steam |
8.109
|
| subsynchronous |
8.57
|
| supersynchronous |
8.57
|
| Whipping |
8.101
|
| Whirl, |
8.105
|
| aerodynamic |
8.106
|
| fluid |
8.107
|
| forward |
8.56
|
| hysteretic* |
8.102
|
| oil |
8.108
|
| reverse |
8.55
|
| steam |
8.109
|
| subsynchronous |
8.57
|
| supersynchronous |
8.57
|
| Whirling |
8.105
|
| White noise |
9.73
|
| Wildhaber-Novikoff’s |
|
| - cylindrical gear pair |
12.3.18
|
| Winkler foundation |
14.3.14
|
| Wire rope |
14.2.44
|
| Wobble |
14.4.15
|
| Wolff’s law |
11.1.49
|
| Work |
3.3.19
|
| - of deformation |
3.3.22
|
| Work, |
|
| virtual |
3.3.21
|
| elementary |
3.3.20
|
| Working |
|
| - addendum |
12.2.17
|
| - cycle |
14.2.34
|
| - dedendum |
12.2.18
|
| - envelope |
5.3.12
|
| - pressure angle |
12.2.9
|
| - range |
5.3.13
|
| - space |
5.3.14
|
| - surface |
12.2.22
|
| - volume |
5.3.14
|
| World coordinate system |
5.3.1
|
| Worm |
1.1.33
|
| - axis |
12.5.11
|
| - gear |
1.1.33
|
| - gear pair |
12.5.7
|
| - thread |
12.1.29
|
| - wheel |
1.1.34
|
| Worm, |
|
| Archimedean |
12.5.20
|
| convolute |
12.5.19
|
| cylindrical |
12.5.12
|
| cylindrical non-ruled |
12.5.14
|
| cylindrical ruled |
12.5.13
|
| enveloping |
12.5.15
|
| enveloping non-ruled |
12.5.17
|
| enveloping ruled |
12.5.16
|
| face |
12.5.21
|
| globoidal |
12.5.15
|
| ground by cone wheel cylindrical |
12.5.24
|
| ground by toroidal wheel cylindrical |
12.5.25
|
| hourglass |
12.5.15
|
| involute |
12.5.18
|
| single enveloping |
12.5.12
|
| spiroid |
12.5.23
|
| Wrench |
3.2.52
|
| Wrist |
5.2.8
|
| X-gear |
12.3.8
|
| X-gear pair |
12.3.9
|
| X-zero gear |
12.3.10
|
| X-zero gear pair |
12.3.11
|
| Yaw |
14.1.23
|
| Yield point |
11.1.36
|
| Yoke |
|
| - cam |
1.1.20
|
| - follower |
1.1.22
|
| Young’s modulus of elasticity |
3.5.4
|
| Young’s modulus, dynamic |
14.3.5
|
| Zerol bevel gear |
12.4.18
|
| Zero-line stability |
4.2.6
|
| Zone, |
|
| load |
8.35
|
| pinch |
5.3.16
|
English