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Acrobat Distiller API Reference - Adobe Inc

The Adobe® Acrobat® Distiller® application converts PostScript® language page descriptions into Adobe PDF files This document describes the Distiller API, which allows other applications to programmatically control Distiller What’s in this guide? This guide describes the Distiller API messages and command line options for use with Microsoft®



Acrobat Distiller, Job 4

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Acrobat Distiller Guide: Acrobat 7 0 9 Generation of Production PDF Advertisements Version 2 0; May 9, 2007 I GENERAL OPTIONS The General options enable you to specify the version of Acrobat to use for file compatibility and other file and device settings Adobe PDF Settings dialog box with the General panel displayed below:



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Acrobat Distiller 6 3 General • Compatibility set to Acrobat 4 0(PDF1 3) • Object-Level Compression set to Tags Only • Auto-Rotate Pages set to Off • Binding set to Left • Resolution set to 2400 dots per inch • All Pages Checked • Default page size can be left as whatever it is when you open this window, it won’t affect the PDF



Setting up Acrobat Distiller - Publication Printers

Acrobat Distiller 7 3 General • Compatibility set to Acrobat 4 0(PDF1 3) • Object-Level Compression set to Tags Only • Auto-Rotate Pages set to Off • Binding set to Left • Resolution set to 2400 dots per inch • All Pages Checked • Default page size can be left as whatever it is when you open this window, it won’t affect the PDF



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1 INTRODUCTION The poor morale of the French Army in Spain between 1807 and 1814 has become a historical commonplace Unable to come to grips with both a guerrilla foe



Acrobat Distiller, Job 3

Acrobat Distiller, Job 3 Author: DSMITH Created Date: 20030403081548Z



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EE130 Lecture 5, Slide 1Spring 2003

Lecture #5

ANNOUNCEMENT

•Discussion Section 102 (Th 10-11AM) moved to 105 Latimer

OUTLINE

-Mobility dependence on temperature - Diffusion current - Relationship between band diagrams & V, - Non-uniformly doped semiconductor - Einstein relationship - Quasi-neutrality approximation

Read: Chapter 3.2

EE130 Lecture 5, Slide 2Spring 2003

Dominant scattering mechanisms:

1. Phonon scattering (lattice scattering)

2. Impurity (dopant) ion scattering

2/3 2/1 1 velocityermalcarrier thdensityphonon 1 ?×?×??TTT phononphonon Phonon scattering mobility decreases when Tincreases:

μ= qτ/ m

Mechanisms of Carrier Scattering

Tv th 2

EE130 Lecture 5, Slide 3Spring 2003

_

ElectronBoron Ion

Electron

Arsenic

Ion

DADAth

impurity NNT NNv 2/33 There is less change in the electron's direction of travel if the electron zips by the ion at a higher speed.

Impurity Ion Scattering

EE130 Lecture 5, Slide 4Spring 2003

Temperature Effect on Mobility

impurityphononimpurityphonon

111111

3

EE130 Lecture 5, Slide 5Spring 2003

Consider a Si sample doped with 10

17 cm -3 As. How will its resistivity change when the temperature is increased from T=300K to T=400K?

Solution

The temperature dependent factor in σ(and therefore

ρ) is μ

n . From the mobility vs.temperature curve for 10 17 cm -3 , we find that μ n decreases from 770 at 300K to

400 at 400K. As a result, ρincreases by

Example: Temperature Dependence of ρ

93.1400770=

EE130 Lecture 5, Slide 6Spring 2003

Particles diffuse from regions of higher concentration to regions of lower concentration region, due to random thermal motion.

Diffusion

4

EE130 Lecture 5, Slide 7Spring 2003

dxdnqDJ N diffN, dxdpqDJ P diffP,

D is the diffusion constant, or diffusivity.

xx

Diffusion Current

EE130 Lecture 5, Slide 8Spring 2003

J N = J

N,drift

+ J

N,diff

= qnμ n dxdnqD N J P = J

P,drift

+ J

P,diff

= qpμ p dxdpqD P J= J N + J P

Total Current

5

EE130 Lecture 5, Slide 9Spring 2003

Band Diagram: Potential vs.Kinetic Energy

electron kinetic energy increasing electron energy E c E v hole kinetic energy increasing hole energy referencec

P.E.EE-=

E c represents the electron potential energy:

EE130 Lecture 5, Slide 10Spring 2003

N- +- 0.7 V Si E V x 0.7V x 0

Electrostatic Potential V

• Potential energy of a -qcharged particle is related to the electrostatic potential V(x): )(1 creference

EEqV-=

qV-=P.E. 6

EE130 Lecture 5, Slide 11Spring 2003

N- +- 0.7 V Si E V x 0.7V x 0

Electric Field

dxdE qdxdV c 1=-= • Variation ofE c with position is called "band bending."

EE130 Lecture 5, Slide 12Spring 2003

Non-Uniformly-Doped Semiconductor

• The position of E F relative to the band edges is determined by the carrier concentrations, which is determined by the dopant concentrations. •In equilibrium, E F is constant; therefore, the band energies vary with position: E v (x) E c (x) E F 7

EE130 Lecture 5, Slide 13Spring 2003

• In equilibrium, there is no net flow of electrons or holes

The drift and diffusion current components must

balance each other exactly. (A built-in electric field exists, such that the drift current exactly cancels out the diffusion current due to the concentration gradient.)

0=+=dxdnqDqnJ

NnN J N = 0 and J P = 0

EE130 Lecture 5, Slide 14Spring 2003

n-type semiconductor

Decreasing donor concentration

dxdEekTN dxdn ckTEEcFc dxdE kTn c kTEE c Fc eNn Consider a piece of a non-uniformly doped semiconductor: E v (x) E c (x) E F qkTn-= 8

EE130 Lecture 5, Slide 15Spring 2003

0=+=dxdnqDqnJ

NnN

Under equilibrium conditions,J

N = 0 andJ P = 0 kTqDqnqn N n -=μ0 n qkTD N

Similarly,

Einstein Relationship between Dand μ

p qkTD P Note: The Einstein relationship is valid for a non-degenerate semiconductor, even under non-equilibrium conditions

EE130 Lecture 5, Slide 16Spring 2003

What is the hole diffusion constant in a sample of silicon with μ p = 410 cm 2 / V s ?

Solution

Remember:kT/q = 26 mVat room temperature.

/scm 11sVcm 410)mV 26( 2112
P p qkTD

Example: Diffusion Constant

9

EE130 Lecture 5, Slide 17Spring 2003

Potential Difference due to n(x), p(x)

• The ratio of carrier densities (n, p) at two points depends exponentially on the potential difference between these points: 12 i2i1121 2 i1 i2 i2i1i 2 Fi2i 1 Fi1 i1 i1Fquotesdbs_dbs7.pdfusesText_13