Inviting Researchers for Abstract Submission at National Conference DPLC 2016

Department of Mechanical Engineering, BITS Pilani Hyderabad campus is organizing the 2^nd National Conference onDesign and Manufacturing for Product Life Cycle (DPLC 2016) at BITS-Pilani, Hyderabad Campus from 19^th to 20^th March 2016.
The conference aims to provide a forum for academic experts and participants to exchange their experiences and share research results about all aspects of Design and manufacturing technologies for Product Life Cycle (DPLC), and discuss the practical challenges encountered and the solutions adopted.

The first edition of DPLC conference was hosted in 2006 by BITS Pilani, Pilani Campus. After 10 years the honour of hosting the second edition of this national conference has been given to BITS Pilani, Hyderabad campus.
Students, alumni, researchers, faculty from Mechanical and manufacturing disciplines of any college or university can submit abstracts until November 30th, 2015.

The notification of acceptance of abstract will be released by December 20th, 2015.
To submit your abstract, visit: www.dplc2016.org/abstract-submission/

IMPORTANT DATES of DPLC 2016

Abstract Submission last date: ~~November 30, 2015~~ December 30, 2015
Confirmation of abstract acceptance: ~~December 20, 2015~~ January 10, 2016
Full length paper submission deadline: ~~January 20, 2016~~ January 30, 2016
Confirmation of acceptance of full length paper February 15, 2016
Registration starts from February 28, 2016.

The brochure of the conference (PDF link) in which the details of how to send the abstract, sponsorship and registration details are mentioned.
You may visit DPLC 2016 Conference website at www.dplc2016.org for more details.

Comments

Grashof’s Law

Grashof’s Law The Grashof’s law states that for a four-bar linkage system, the sum of the shortest and longest link of a planar quadrilateral linkage is less than or equal to the sum of the remaining two links, then the shortest link can rotate fully with respect to a neighboring link. Consider a four-bar-linkage. Denote the smallest link by S, the longest link by L and the & other two links by P and Q. If the Grashof’s Law condition is satisfied i.e S+L ≤ P+Q, then depending on whether shortest link ‘S’ is connected to the ground by one end, two ends, or no end there are 3 possible mechanisms. They are: Double crank mechanism Double-rocker mechanism and Crank and Rocker Mechanism 1. Double crank mechanism In double crank mechanism, the shortest link ‘S’ is a ground link. Both input crank and output crank rotate at 360°. Grashof’s condition for double crank mechanism: s+l > p+ q Let: ‘s’ = length of shortest link, ‘l’ = length...

Gruebler’s Equation

Gruebler’s Equation Degrees of freedom for planar linkages joined with common joints can be calculated through Gruebler’s equation. Gruebler’s equation is given by the formula: where, n = total number of links in the mechanism j p = total number of primary joints (pins or sliding joints) j h = total number of higher-order joints (cam or gear joints) Mechanisms and structures with varying mobility for Figure (a), (b) and (c) Most linkages used in machines have a single degree of freedom. An example of single degree-of-freedom linkage is shown in figure (a). Linkages with zero or negative degrees of freedom are termed locked mechanisms. Locked mechanisms are unable to move and form a structure. A truss is a structure composed of simple links and connected with pin joints and zero degrees of freedom. An example of locked mechanism is shown in figure (b). Linkages with multiple degrees of freedom need more than one dri...

Fundamental Concepts and Terms in Vibration

Fundamental Concepts and Terms in Vibration Vibration is a mechanical phenomenon, It is a movement first in one direction and then back again in the reverse direction. e.g: the motion of a swinging pendulum, the motion of a tuning fork. Any simple vibration is described by three factors: its amplitude; its frequency and rate of oscillation. Some of the general terms you will come across while studying on vibration topic are Oscillatory motion, Simple Harmonic Motion, Periodic Motion. now we will see the above mentioned terms in brief. Oscillatory motion is described as motion that repeats itself in a regular intervals of time. for example a sine wave or cos wave or pendulum. The time taken for an oscillation to occur is often referred to as the oscillatory period. Simple Harmonic Motion: Simple Harmonic Motion is periodic motion in which the restoring force is directly proportional to the displacement. F = -k*x A simple harmonic motion of a pendulum is an example of m...

mechanical engineering

Search This Blog