Iteration definition
Iteration means a fixed period of time agreed in each Project Plan during which:
Iteration means a fixed period set in line with the Company's development principles during which one or more Features are developed and Tested (or, in respect of the final such period for each Release, agreed Defects are worked upon) as part of the Development & Implementation Services;
Iteration. A single development cycle, usually two weeks, during which time the Garage Team will build the PBIs that were agreed upon during the Iteration Planning activity. Any PBI that does not get completed during the Iteration is returned to the Backlog to be addressed in a future Iteration. Minimum Lovable Product (MLP): This is a type of Release which is meaningful to the Product Owner and validates the business and user value.
Examples of Iteration in a sentence
The Product Owner participates in Iteration Planning to prioritize backlog items and validate the new functionality before it goes to Iteration planning.
A release is a time box of scope or PBIs that aligns with a number of Iterations in order to plan longer range vision than an Iteration provides.
More Definitions of Iteration
Iteration means putting the decision-making process into practice and converting it into step-by-step planning adapting to the situation in hand. It is a repeated or recurring process that seeks to approach an optimal solution. New developments and knowledge gained in the course of a planning process are thus incorporated in the process and may require revision and updating.This may result in repetition of steps which have already been taken and can mean renewed data collection, analysis, discussion and decision.
Iteration means a fixed-duration cycle of development.
Iteration. The number of iterations in that loop.
Iteration means an optimization cycle encompassing the design, synthesis and profiling of 15 to 25 compounds.
Iteration. << n << " j=" << j << endl; w=u; eq1; v=f; //plot(v,wait=ww,value=1,fill=1); v=max(u-f,0.); plot(th,wait=ww,value=1); plot(u,wait=ww,value=1,fill=1); //plot(v,wait=ww,value=1,fill=1); //u = max(u,f); //plot(u,wait=ww,value=1,fill=1); //ww=0; /*if(j>10) { cout << " adaptmesh " << endl; th = adaptmesh(th,u,verbosity=1,abserror=1,nbjacoby=2, err=0.001, nbvx=5000, omega=1.8, ratio=1.8, nbsmooth=3, splitpbedge=1, maxsubdiv=5,rescaling=1) ; j=-1; xveloc = -x*r+x*sigmax^2+x*rho*sigmax*sigmay/2; yveloc = -y*r+y*sigmay^2+y*rho*sigmax*sigmay/2; u=u; ww=1; }; */ j=j+1; cout << " j = " << j << endl; }; v = u-f; //max(u-f,0.); plot(v,wait=1,value=1); plot(u,wait=1,value=1); plot(th,wait=1);