International Journal of Powder Metallurgy Instructions for Authors

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INSTRUCTIONS
FOR AUTHORS
International Journal of Powder Metallurgy
Instructions for Authors
The Journal reports on scientific and technological
developments worldwide in the powder metallurgy and
particulate materials industries. Articles cover both the
scientific/theoretical and practical aspects of the technology. Subjects addressed include: powder production and characterization; compaction; sintering; consolidation to full density; powder injection molding;
and hybrid particulate processes such as spray forming, thermal spraying, and additive manufacturing.
The Journal also embraces review articles, PM industry news, company profiles, a consultants’ corner,
newsmakers, conference reports, and book reviews.
The Journal ’s audience includes: powder metallurgists, engineers, researchers, educators, students,
technical managers, and users of powders, PM parts,
and particulate materials.
Manuscript Requirements
1.
The primary author should be a member of APMI
International.
2. a. Authors should limit manuscripts to 10 printed
pages in the Journal. For guidance, this is roughly 30 double-spaced typed pages—including text,
references, figures, and tables.
b. Authors should submit their manuscript in
Microsoft Word via email to: dschember@
mpif.org. All images should be digital, in jpg or tif
format, and at least 300 dpi at 4x6 inches.
c. Micrographs must include a magnification marker in the lower right-hand corner.
d. Tables and figures must include complete
descriptive captions.
e. Equations, tables, references and figures should
be numbered separately and consecutively
throughout the text.
f. Papers must be in English, be original and not be
published elsewhere. Translated papers published in other languages will be considered provided the author receives permission and submits a copyright release from the publication
involved. Particular attention should be given to
grammar/syntax; the Journal is not in a position
to assist authors in technical writing.
3.
Authors and co-authors must provide complete
names, mailing addresses, job titles and affiliations, as they wish them to appear in the Journal.
A letter accompanying the manuscript should
give the name, complete address, telephone number, and e-mail address of the author to whom
correspondence should be sent.
4.
Each paper must include an abstract of approximately 100 words that summarizes concisely the
paper’s objectives, methods, results, observations, mode of analysis, and conclusions.
5.
Système International (SI) units are mandatory.
If industrial practice dictates the use of other systems of units, such units must be included in
parentheses. As a guide for authors, frequently
used SI units and the corresponding conversion
factors are provided.
6.
Weight percent, atomic percent, and volume percent should be given as wt.%, at.%, and vol.%,
respectively.
7.
References must be numbered, placed at the end
of the paper, and must adhere to the following
format:
Journal
T. Le, R. Stefaniuk, H. Henein and J-Y. Huôt,
“Measurement and Analysis of Melt Flowrate in
Gas Atomization”, Int. J. Powder Metall., 1999,
vol. 35, no. 1, pp. 51–60.
Book
R.M. German, Powder Metallurgy Science,
Second Edition, 1994, Metal Powder Industries
Federation, Princeton, NJ.
Article in Book/Conference Proceedings
S.H. Luk, F.Y. Chau and V. Kuzmicz, “Higher
Green Strength and Improved Density by
Conventional Compaction”, Advances in Powder
Metallurgy & Particulate Materials, compiled by
J.J. Oakes and J.H. Reinshagen, Metal Powder
Industries Federation, Princeton, NJ, 1998,
vol. 3, part 11, pp. 81–99.
Patent
I.L. Kamel, A. Lawley and M-H. Kim, “Method
of Molding Metal Particles”, U.S. Patent No.
5,328,657, July 12, 1994.
Thesis
D.J. Schaeffler, “High-Strength Low-Carbon
Powder Metallurgy Steels: Alloy Development
with Transition Metal Additions”, 1991, Ph.D.
Thesis, Drexel University, Philadelphia, PA.
Technical Report
T.M. Cimino, A.H. Graham and T.F. Murphy,
“The Effect of Microstructure and Pore Morphology on Mechanical and Dynamic Properties
of Ferrous P/M Materials”, 1998, Hoeganaes
Technical Data, Hoeganaes Corporation,
Cinnaminson, NJ.
Website Content
J.R. Dale, “Connecting Rod Evaluation”, Metal
Powder Industries Federation, http://www.mpif.
org/design/conrod.pdf
Private Communication
P.W. Taubenblat, 1999, Promet Associates,
Highland Park, NJ, private communication.
The author(s) will be sent a copyright form, which must
INSTRUCTIONS FOR AUTHORS
be returned before the paper can be published. A
reprint order form will also be sent to the author(s). All
manuscripts submitted to the Journal will be sent to
the Editor-in-Chief, who will make an initial decision
on the paper’s suitability for external review. Papers
are then subject to review by two members of the
Editorial Review Committee. Papers are accepted with
the understanding that they may be returned to the
author(s) for revision, based on the recommendations
of the reviewers. For clarity and conciseness, they may
be edited by the Journal’s staff.
Articles and questions should be submitted to:
W. Brian James, FAPMI
Editor-in-Chief
International Journal of Powder Metallurgy
105 College Road East
Princeton, NJ 08540-6692 USA
Email: dschember@mpif.org
SI UNITS—CONVERSION TABLE
Quantity
Apparent Density
Applied Magnetic Field
Atmosphere Flow
Belt Speed
Bulk Density
Coefficient of Thermal Expansion
Coercive Field Strength
Compacting Pressure
Crush Strength
Fatigue Limit (Strength)
Force
Flow Time
Fracture Toughness
Green Density
Green Strength
Heating Rate
Impact Energy
Kinematic Viscosity
Magnetic Induction
Particle Size
Powder Mass
Sintered Density
Specific Surface
Surface Finish
Tap Density
Temperature
Tensile Strength
Thermal Conductivity
Torque
Transverse Rupture Strength
Yield Strength
Young's Modulus
Designation
ρa
H
—
—
—
—
—
—
Hc
—
K
—
—
—
KIC
ρg
—
—
—
—
B
—
—
—
—
ρs
—
—
ρt
—
—
—
—
—
—
—
Inch-Pound Units
Preferred Working Unit
Symbol
Approx.
Conversion
to SI Units*
g/cm3
oersteds (Oe)
ft3/min
CFH
ipm
Ibm/ft3
Ibm/gal
x10-6/ºF
oersteds (Oe)
tsi
103 psi
103psi
lbf
s/50 g
103 psi·inch½
g/cm3
psi
degree Fahrenheit per second
(°F/sec)
ft·lbf
centistokes (cSt)
kilogauss (kG)
10-3 in.
pound (Ibm)
ton
ton
g/cm3
m2/g
microinches
g/cm3
degree Fahrenheit (°F)
103 psi
Btu·ft/(h·ft2 ·ºF)
lbf ·ft
103 psi
103 psi
106 psi
gram per cubic centimetre
amperes-turns/metre
cubic centimetre per second
cubic centimetre per second
millimetre per minute
gram per cubic centimetre
gram per cubic centimetre
ampere-turns/metre
megapascals
megapascals
megapascals
newton
second per 50 grams
megapascals root metre
gram per cubic centimetre
megapascals
degree Celsius per second
g/cm3
A/m
cm3/s
cm3/s
mm/min
g/cm3
g/cm3
x10-6/ºC
A/m
MPa
MPa
MPa
N
s/50 g
MPa·m½
g/cm3
MPa
°C/s
—
X 79.6
X 472.0
X 7.867
X 25.40
X 0.016
X 0.120
X 1.8
X 79.6
X 13.79
X 6.895
X 6.895
X 4.448
—
X 1.1
—
X 0.0069
X 0.556
joule
metres squared per second
tesla
micrometre
kilogram
megagram
metric ton
gram per cubic centimetre
square metre per gram
micrometre
gram per cubic centimetre
degree Celsius
megapascals
watts per metre kelvin
newton metres
megapascals
megapascals
gigapascals
J
m2/s
T
μm
kg
Mg
t
g/cm3
m2/g
μm
g/cm3
°C
MPa
W/(m·K)
N·m
MPa
MPa
GPa
X 1.356
X 1.0 x 10-6
X 0.1
—
X 0.454
X 0.907
X 0.907
—
—
X 0.0254
—
5/9 (°F -32)
X 6.895
X 1.731
X 1.356
X 6.895
X 6.895
X 6.895
* Example: 1 psi = 0.0069 MPa
If 100,000 psi, then MPa = 0.0069 X 100,000 = 690 MPa
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