Notes:

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

1. For

 

MVS,

make

sure

to

use the PSF APSRMARK utility

to

mark

the

reside

fonts

before

you

use

them. PSF/MVS also ships another

utility,

APSRCF30,

which

 

you

can

use

to

convert

240-pel

fonts to 300-pel

fonts.

 

 

 

2. For

 

VSE,

make

sure

to

use the PSF APTRMARK utility

to

mark

the

reside

fonts

before

you

use

them. PSF/VSE also ships another

utility,

APTVCF30,

which

 

you

can

use

to

convert 240-pel fonts to 300-pel

fonts.

 

 

 

See “PSF Support Notes” on

page 62

for more informationPSF/MVS:. Refer

 

to

 

 

 

System

Programming

Guide andPSF/VSE: System

Programming

Guide

for

 

 

 

 

 

information

about

these

utilities. To

create

fonts from

Adobe

Type

1

use

the

Type

Transformer,

which is shipped with PSF/2.

 

 

 

 

 

 

The 3130 300-pel

printed

output

will

have

the

same

line

and

page

ending

right

margins

 

may

not perfectly match those of the 240-pel version. For

the

typical

line

variation

for

a±

1213-pointmm

(0font.05 inis.)

or about

 

one-half

a

character

width.

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

If the font requested is not supported by the 3130

or

by

PSF,

you

supported

substitute

font

or obtain a 300-pel version of

the

font

from

If

you

 

use

a

substitute font,

the line

endings,

page

endings,

and

ri

be

different

from the

240-pel

printed version.

 

 

 

 

 

 

 

Page Definitions and Form Definitions

Page definitions and form definitions often contain images and fonts tha dependent on resolution. Check these resources to see if they specif overlays, and page segments that need to be considered for migration conversion. Also, overlays can specify other objects such as fonts and segments that may need to be considered for migration or conversion.

Bar Codes

The 3130 can print the following types of bar codes:

Ÿ BCOCA

 

- If the

print

data

set

was

designed to run on a printer

can

be

run with little or no

change on a 3130. Some bar codes may

slightly

differently

on

the 3130.

Some

differences include:

– The 3812, 3816, and 4028 insert a blank area (called a quiet z beginning of the bar code area. Other printers, such as the 3 4230, and 4234 do not.

– The Code128 modifier may print in a different position with the

– EAN2,

EAN5, UPC2,

and

UPC5

bar

codes

may

print larger

than they

di

on

previous printers.

 

 

 

 

 

 

 

 

 

See the reference materials for your

software and printers for mo

details on bar code implementation. For

implementing

BCOCA

bar

codes,

s

your

application software documentation

for

information.

 

 

 

Ÿ Bar Codes Generated by DCF

 

-

When

a program

such

as

Document

 

 

Composition Facility (DCF) is used to generate

bar

codes using draw

output should be tested on the 3130

with the scanning equipment use

reading the bar codes. The different

resolution

of the

printer

may

slight

differences

in

the

placement of

the bar

code

components.

 

16 3130 Advanced Function Printer:

Introduction

and

Planning

Guide

 

 

 

 

 

 

 

 

Page 27 Page 29
Page 28
Image 28
IBM q5-44-3974-04 manual Definitions and Form Definitions, Bar Codes, System, Guide, Psf
Page 27 Page 29

q5-44-3974-04 specifications

The IBM Q5-44-3974-04 is a prominent model in IBM's line of quantum computing systems, showcasing the company's groundbreaking advancements in quantum technology. Designed to facilitate research and practical applications in the field of quantum computing, the Q5-44-3974-04 exemplifies IBM's commitment to making quantum systems accessible to a wider range of industries and researchers.

One of the distinctive features of the Q5-44-3974-04 is its qubit architecture. Leveraging superconducting qubits, this model utilizes a combination of transmon qubits, which are known for their improved error rates and coherence times, enabling more reliable computations. The system typically incorporates a greater number of qubits compared to previous models, allowing for more complex quantum algorithms to be executed.

In terms of technologies, the Q5-44-3974-04 is embedded with advanced quantum error correction techniques. These methods are crucial for mitigating the effects of noise and decoherence, both of which can significantly impact the performance of quantum computations. By implementing sophisticated control systems and pulse optimization techniques, IBM has been able to enhance the fidelity of quantum gates, thereby improving the overall performance of the quantum processor.

The Q5-44-3974-04 also features a user-friendly cloud-based interface, enabling researchers and developers to access its computational power remotely. This cloud integration allows users to run quantum algorithms, perform simulations, and interact with quantum circuits without the need for specialized hardware. This accessibility has been a game-changer, fostering collaboration across disciplines and accelerating the pace of quantum research.

Moreover, the system is designed with scalability in mind, enabling future upgrades both in hardware and software. This adaptability ensures that as the field of quantum computing evolves, the Q5-44-3974-04 can accommodate advancements, thereby extending its utility and lifespan.

Finally, IBM emphasizes the integration of their quantum systems with classical computing resources through hybrid quantum-classical algorithms. This convergence allows for the optimal use of classical and quantum capabilities, paving the way for innovative solutions to complex problems in fields such as cryptography, optimization, and materials science.

In summary, the IBM Q5-44-3974-04 represents the forefront of quantum technology, equipped with advanced qubits, error correction methods, cloud access, and a scalable architecture, making it a vital tool for researchers and enterprises seeking to harness the power of quantum computing.
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