Tire Science and Technology 1995: Vol 23 Index

7 Pages·1995·1.4 MB·English

Tire Science and Technology
Index to Volume 23
1995
Months Pages
Jan.—Mar. 1- 70
Apr.-Jun. 71-136 Camber angle
Jul.-Sep. 137-210 Analysis of the contact deforma-
Oct.-Dec. 211-288 tion of a radial tire with camber
angle (Kagami, Akasaka, Shio-
bara, and Hasegawa), Jan.-
A
Mar., 26
Akasaka, T.: see Kagami, S., Aka- Cavity resonance
saka, T., Shiobara, H., and Ha- Plane wave resonance in the tire air
segawa, A. cavity as a vehicle interior noise
Akasaka, T.: see Shiobara, H., Aka- source (Thompson), Jan.—Mar., 2
saka, T., Kagami, S., and Tsut- Chung, S.: see Schroder, C. and
sum, S. Chung, S.
Ataka, H. and Yamashita, F.: Anal- Coast-by noise
ysis of tire performance on Investigation into the influence of
sand, Jan.-Mar., 52 tire construction on coast-by
noise (Doan, Brackin, Nishi-
hata, and Sauerzapf), Mar.-
Jun., 96
Belt construction Composite
Application of a technical docu- Millipolar theory for twisted cord-
mentation system for develop- reinforced composites (Pado-
ing new belt constructions for van, Ma, and Parris), Jul.—Sep.,
truck tires (Nemeth, Nandori, 138
Sark6zi, and Szabo), Oct.- Compressive fracture stress of sand
Dec., 266 Analysis of tire performance on
Belt edge endurance sand (Ataka and Yamashita),
Application of a technical docu- Jan.—-Mar., 52
mentation system for develop- Contact area
ing new belt constructions for Measurement and visualization of
truck tires (Németh, Nandori, the contact pressure distribu-
Sark6zi, and Szabo), Oct.- tion of rubber disks and tires
Dec., 266 (Sakai), Oct.-Dec., 238
Brackin, D.: see Doan, V. Q., Contact pressure
Brackin, D., Nishihata, S., and Investigation into the influence of
Sauerzapf,J . tire construction on coast-by
283
284 TIRE SCIENCE & TECHNOLOGY
noise (Doan, Brackin, Nishi- External noise
hata, and Sauerzapf), Mar.- Tire contribution in the context of
Jun., 96 automobile noise reduction (Ri-
Measurement and visualization of mondi), Jul.—Sep., 189
the contact pressure distribu-
F
tion of rubber disks and tires
(Sakai), Oct.-—Dec., 238
Finite element analysis
One-dimensional contact pressure
Application of a technical docu-
distribution of radial tires in
mentation system for develop-
motion (Shiobara, Akasaka, ing new belt constructions for
Kagami, and Tsutsumi), Apr.-
truck tires (Németh, Nandori,
Jun., 116
Sark6zi, and Szabo), Oct.-
Contact pressure distribution
Dec., 266
Analysis of the contact deforma-
Millipolar theory for twisted cord-
tion of a radial tire with camber
reinforced composites (Pado-
angle (Kagami, Akasaka, Shio-
van, Ma, and Parris), Jul.—Sep.,
bara, and Hasegawa), Jan.-
138
Mar., 26
Some notes on the finite element
Cord
analysis of tires (Gall, Tabad-
Millipolar theory for twisted cord-
dor, Robbins, Majors, Shep-
reinforced composites (Pado- herd, and Johnson) Jul.-Sep..,
van, Ma, and Parris), Jul.—Sep.,
175
138
Four parameter evaluation method
Influence of tire characteristic
D
properties on the vehicle lateral
transient response (Schroder and
Doan, V. Q., Brackin, D., Nishihata,
Chung), Apr.—Jun., 72
S., and Sauerzapf, J.: Investiga-
tion into the influence of tire G
construction on coast-by noise,
Gall, R., Tabaddor, F., Robbins, D.,
Mar.-—Jun., 96
Majors, P., Shepherd, W., and
Johnson, S.: Some notes on the
E
finite element analysis of tires,
Jul.—Sep., 175
Elasticity
Grid generation
Millipolar theory for twisted cord-
Internal temperature distribution
reinforced composites (Pado-
in a rolling tire (Oh, Kim, Kim,
van, Ma, and Parris), Jul.—Sep.,
138 Moon, Park), Jan.—Mar., | 1
Environmental wear effects
H
Tire treadwear—The joint in-
fluence of compound proper- Hasegawa, A.: see Kagami, S., Aka-
ties and environmental factors saka, T., Shiobara, H., and Ha-
(Veith), Oct.-—Dec., 212 segawa, A.
VOLUME 23 INDEX 285
Inflation pressure Lateral force
One-dimensional contact pressure Influence of tire characteristic
distribution of radial tires in properties on the vehicle lateral
motion (Shiobara, Akasaka, transient response (Schréder
Kagami, and Tsutsumi), Apr.- and Chung), Apr.-Jun., 72
Jun., 116 Loss modulus
Input force Tire treadwear-The joint influence
Investigation into the influence of of compound properties and envi-
tire construction on coast-by ronmental factors (Veith), Oct.-
noise (Doan, Brackin, Nishi- Dec., 212
hata, and Sauerzapf), Mar.-
Jun., 96
M
Internal friction angle
Analysis of tire performance on
Ma, J.: see Padovan, J., Ma, J., and
sand (Ataka and Yamashita),
Parris, H.
Jan.-Mar., 52
Magic formula
Internal temperature
Influence of tire characteristic
Internal temperature distribution
properties on the vehicle lateral
in a rolling tire (Oh, Kim, Kim,
transient response (Schroder
Moon, Park), Jan.—Mar., 11
and Chung), Apr.-—Jun., 72
J Majors, P.: see Gall, R., Tabaddor,
F., Robbins, D., Majors, P.,
Johnson, S.: see Gall, R., Tabaddor, Shepherd, W., and Johnson S.
F., Robbins, D., Majors, P., Micropolar
Shepherd, W., and Johnson, S. Millipolar theory for twisted cord-
reinforced composites (Pado-
K van, Ma, and Parris), Jul.—Sep.,
138
Kagami, S.: see Shiobara, H., Aka-
Millipolar
saka, T., Kagami, S., and Tsut-
Millipolar theory for twisted cord-
sumi, S.
reinforced composites (Pado-
Kagami, S., Akasaka, T., Shiobara,
van, Ma, and Parris), Jul.—Sep.,
H., and Hasegawa, A.: Analysis
138
of the contact deformation of a
Moon, H. Y.: see Oh, B. S., Kim,
radial tire with camber angle,
Y.N., Kim, N. J., Moon, H. Y..
Jan.—Mar., 26
and Park, H. W.
Kim, N. J.: see Oh, B. S., Kim, Y. N.,
Kim, N. J., Moon, H. Y., and
Park, H. W. N
Kim, Y. N.: see Oh, B. S., Kim,
Y.N., Kim, N. J., Moon, H. Y., Nandori, F.: see Nemeth, T., Nandori,
and Park, H. W. F., Sark6zi, L., and Szabo, T.
286 TIRE SCIENCE & TECHNOLOGY
Németh, T., Nandori, F., Sark6zi, bara, and Hasegawa), Jan.-
L., and Szabo, T.: Application Mar., 26
of a technical documentation Relaxation length
system for developing new belt Influence of tire characteristic
constructions for truck tires, properties on the vehicle lateral
Oct.-Dec., 266 transient response (Schroder and
Nishihata, S.: see Doan, V. Q., Chung), Apr.—Jun., 72
Brackin, D., Nishihata, S., and Rimondi, G.: Tire contribution in
Sauerzapf, J. the context of automobile noise
Noise reduction reduction, Jul.—Sep., 189
Tire contribution in the context of Ring model
automobile noise reduction (Ri- One-dimensional contact pressure
mondi), Jul.—Sep., 189 distribution of radial tires in
motion (Shiobara, Akasaka,
O Kagami, and Tsutsumi), Apr.-
Jun., 116
Oh, B. S., Kim, Y. N., Kim, N. J.,
Robbins, D.: see Gall, R., Tabaddor,
Moon, H. Y., and Park, H. W.:
F., Robbins, D., Majors, P.,
Internal temperature distribu- Shepherd, W., and Johnson, S.
tion in a rolling tire, Jan. -Mar., Rolling resistance
11 One-dimensional contact pressure
distribution of radial tires in
P
motion (Shiobara, Akasaka,
Kagami, and Tsutsumi), Apr.-
Padovan, J., Ma, J., and Parris, H.:
Jun., 116
Millipolar theory for twisted
Total energy loss comparison by
cord-reinforced composites, Jul.-
the whole tire hysteresis and the
Sep., 138
rolling resistance methods (Pil-
Park, H. W.: see Oh, B. S., Kim,
lai), Oct.—Dec., 256
Y. N., Kim, N.-J., Moon, H. Y..,
Rolling tire
and Park, H. W.
Internal temperature distribution
Parris, H.: see Padovan, J., Ma, J.,
and Parris, H. in a rolling tire (Oh, Kim, Kim,
Moon, Park), Jan.—Mar., 11
Pillai, P. S.: Total energy loss com-
Rubber
parison by the whole tire hyster-
Millipolar theory for twisted cord-
esis and the rolling resistance
reinforced composites (Pado-
methods, Oct.-Dec., 256
van, Ma, and Parris), Jul.—Sep..,
R 138
Rubber disk
Radial tire Measurement and visualization of
Analysis of the contact deforma- the contact pressure distribu-
tion of a radial tire with camber tion of rubber disks and tires
angle (Kagami, Akasaka, Shi- (Sakai), Oct.-—Dec., 238
VOLUME 23 INDEX 287
S Sound intensity
Investigation into the influence of
Sakai, E. H.: Measurement and visu- tire construction on coast-by
alization of the contact pressure noise (Doan, Brackin, Nishi-
distribution of rubber disks and hata, and Sauerzapf), Mar.-
tires, Oct.-Dec., 238 Jun., 96
Sand tire Spring bedded ring model
Analysis of tire performance on Analysis of the contact deforma-
sand (Ataka and Yamashita), tion of a radial tire with camber
Jan.-Mar., 52 angle (Kagami, Akasaka, Shio-
Sand traction bara, and Hasegawa), Jan.-
Analysis of tire performance on Mar., 26
sand (Ataka and Yamashita), Supercomputer
Jan.-Mar., 52 Some notes on the finite element
Sark6zi, L.: see Nemeth, T., Nandori, analysis of tires (Gall, Tabad-
F., Sark6zi, L., and Szabo, T. dor, Robbins, Majors, Shep-
Sauerzapf, J.: see Doan, V. Q., herd, and Johnson) Jul.—Sep.,
Brackin, D., Nishihata, S., and 175
Sauerzapf, J. Szabo, T.: see Nemeth, T., Nandori,
Schroder, C. and Chung, S.: Influ- F., Sark6zi, L., and Szabo, T.
ence of tire characteristic prop-
erties on the vehicle lateral tran-
T
sient response, Apr.—Jun., 72
Self-aligning torque
Influence of tire characteristic Tabaddor, F.: see Gall, R., Tabad-
properties on the vehicle lateral dor, F., Robbins, D., Majors, P.,
transient response (Schrodder Shepherd, W., and Johnson, S.
and Chung), Apr.-Jun., 72 Thompson, J. K.: Plane wave reso-
Shearing stress of sand nance in the tire air cavity as a
Analysis of tire performance on vehicle interior noise source,
sand (Ataka and Yamashita), Jan.—Mar., 2
Jan.-Mar., 52 Tire
Shepherd, W.: see Gall, R., Tabad- Measurement and visualization of
dor, F., Robbins, D., Majors, P., the contact pressure distribu-
Shepherd, W., and Johnson, S. tion of rubber disks and tires
Shiobara, H.: see Kagami, S., Aka- (Sakai), Oct.-—Dec., 238
saka, T., Shiobara, H., and Ha- Tire hysteresis loss
segawa, A. Total energy loss comparison by
Shiobara, H., Akasaka, T., Kagami, the whole tire hysteresis and the
S., and Tsutsumi, S.: One-di- rolling resistance methods (Pil-
mensional contact pressure dis- lai), Oct.—Dec., 256
tribution of radial tires in mo- Tire noise
tion, Apr.—Jun., 116 Tire contribution in the context of
288 TIRE SCIENCE & TECHNOLOGY
automobile noise reduction (Ri- Vv
mondi), Jul.—Sep., 189
Trapezoidal contact patch Vehicle dynamics
Analysis of the contact deforma- Influence of tire characteristic
tion of a radial tire with camber properties on the vehicle lateral
angle (Kagami, Akasaka, Shio- transient response (Schroder
bara, and Hasegawa), Jan.- and Chung), Apr.-Jun., 72
Mar., 26 Vehicle handling
Tread pattern Influence of tire characteristic
Investigation into the influence of properties on the vehicle lateral
tire construction on coast-by transient response (Schroder
noise (Doan, Brackin, Nishi- and Chung), Apr.-Jun., 72
hata, and Sauerzapf), Mar.- Vehicle interior noise
Jun., 96 Plane wave resonance in the tire air
Tread stiffness cavity as a vehicle interior noise
Investigation into the influence of source (Thompson), Jan.—Mar., 2
tire construction on coast-by Veith, A. G.: Tire treadwearT—h e
joint influence of compound
noise (Doan, Brackin, Nishi-
hata, and Sauerzapf), Mar.- properties and environmental
Jun., 96 factors, Oct.—Dec., 212
Tread vibration Vibration transfer properties
Investigation into the influence of Investigation into the influence of
tire construction on coast-by tire construction on coast-by
noise (Doan, Brackin, Nishi- noise (Doan, Brackin, Nishi-
hata, and Sauerzapf), Mar.- hata, and Sauerzapf), Mar.-
Jun., 96 Jun., 96
Treadwear
Ww
Tire treadwear—The joint in-
fluence of compound proper-
Weight load
ties and environmental factors
One-dimensional contact pressure
(Veith), Oct.-—Dec., 212 distribution of radial tires in
Treadwear mechanism
motion (Shiobara, Akasaka,
Tire treadwear—The joint in-
Kagami, and Tsutsumi), Apr.-
fluence of compound proper-
Jun., 116
ties and environmental factors
(Veith), Oct.-Dec., 212 Y
Tsutsumi, S.: see Shiobara, H., Aka-
saka, T., Kagami, S., and Tsut- Yamashita, F.: see Ataka, H. and
sumi, S. Yamashita, F.