Computer technologies in science, production and education. Computer technologies in science and education. Computer technologies in science and production

  • 22.11.2023

The goal of mastering the discipline “Computer technologies in science and production” is to develop knowledge of modern computer and information technologies for working in production and conducting scientific research. The objective of the discipline is to study the structure, operating principle, capabilities and characteristics of computer technology; studying the classification, purpose and structure of software; mastering the methods of modern and promising information technologies in scientific and industrial activities; acquiring skills and techniques for working with mathematical, engineering, scientific and applied packages.

The discipline “Computer technologies in science and production” belongs to the basic part of the general scientific cycle of the main educational program for master’s training in the direction 111400 – Aquatic biological resources and aquaculture.

The discipline “Computer technologies in science and production” is final and generalizing and is based on all previous disciplines of the curriculum, in which computer and information technologies were considered and applied in various aspects. The discipline requires knowledge of the subject area of ​​computer science within the scope of standard university training.

As a result of mastering the discipline, the student must:

History, current state and prospects for the development and application of computer technologies in science, education and production;

Classification, structure and basic technical characteristics of computer technology;

Composition, classification and main capabilities of applied software in the field of electric power and electrical engineering for the automation of scientific, engineering and educational activities;

Operating principles and capabilities of local and global computer networks.

Use modern computer and computing technology to automate scientific and engineering activities and organize electronic document management;

Apply applied computer programs to solve research, production and technological problems of professional activity;

Use computer, network and information technologies and multimedia in science, production and education.

3. Own:

Methods of using computer technologies to solve research, production and technological problems in fisheries;

Methodology for collecting, processing and presenting fishery information using application programs, network technologies and multimedia in education, science and production.

Faculty of Applied Sciences
computer science
Computer technologies in science,
production and education

Faculty of Applied Sciences
computer science
Department of System Analysis and Processing
information
Ph.D., Associate Professor Yakhontova I.M.
202, 217ek.

Faculty of Applied Sciences
computer science
Basic
purpose
studying
disciplines
“Computer technologies in science, production and
education" is the study and development
modern
computer
technologies
used to solve problems arising in
science, production and education.

Objectives of studying the discipline:
acquisition of a system of knowledge about computer
technologies as one of the functions of activity
Informatics,
allowing
accept
relevant
solutions
at
execution
problematic tasks;
organization
informational
systems
For
wide
circle
internal
And
external
users;
generation and presentation of information,
satisfying
requirements
various
users.
studying methods and methods of computer
modeling.

Information technologies for production management

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INFORMATION TECHNOLOGY
PRODUCTION
MANAGEMENT

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1.
Concept
production
enterprise management.
2. Organization
production
process. Types of production.
3. Development
operational
production.
plans

1
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Enterprise management provides
control
his
versatile
activities that have a unifying
part is production. Other directions
activities of the enterprise are intended
provide
normal
work
By
production of products or provision of services.
For
more
effective
management
enterprise
are being developed
scientific
fundamentals of management, separate
conditionally independent, its parts.

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The essence of production management
expressed in its functions, that is, those
tasks,
For
solutions
which
He
intended. Such functions can be counted
five: they were formulated at the beginning of XX
century leading scientist in scientific theory
directed by Henri Fayol.

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1.
Planning. Management function
"number one" is generally considered
planning.
Realizing
her,
entrepreneur or manager
based on deep and comprehensive analysis
the position in which you are currently
the company is located, formulates the standing
goals and objectives before her, develops
strategy
actions,
amounts to
necessary plans and programs. Figuratively
speaking, it is about determining “where
we are currently where
we want to move and how we are going to do it
do".

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2. Organization. Implementation of developed
plans and programs are included in the content
other functions, and above all the functions
organizations. Her “responsibilities” include
Creation
companies,
formation
her
structures
And
systems
management,
providing its activities with the necessary
documentation, organization itself
production process.

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3. Coordination. The company lives and works
thanks to the people employed there, and their
joint
activities
necessary
manage.
That's why
important
meaning
acquires the function of labor coordination
activities of people.

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4. Motivation. So that things go well at the company
successfully, high activity and
good quality of work of its employees.
Therefore, it is very important to interest them in
like this
respect
To
labor,
create
corresponding motives. This requires
determine what they want (and often
many people don’t know this) and choose the most
suitable for the company and effective for
personnel way to satisfy identified
needs, that is, encouragement. Another
the side of motivation is punishment,
which also sometimes have to be applied
towards negligent employees.

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5.
Control. The essence of the fifth classical
management functions - control. He
called up
early
determine
impending dangers, detect
errors, deviations from existing ones
standards and thereby create the basis
for the process of activity adjustment
companies. The main task of control is
thus, not in search of "goats"
absolution" for the mistakes made, and in
determining the causes of recent and possible
ways out of the current situation.

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All of the above functions are not easy
they form a single whole, they are intertwined
with each other, penetrate each other, so
sometimes it is difficult to separate them. Implementation of them
everyone
planned
is being organized
coordinated
motivated,
controlled. They are implemented using
certain methods, that is, ways
bringing them into execution.

Production management methods
1. Organizational methods. Before
some activity will be carried out,
it must be properly organized:
designed, targeted, regulated,
normalized
equipped
necessary
instructions,
fixing
rules
personnel behavior in various situations.
Thus, organizational methods
management precedes the activity itself,
create the necessary conditions for it,
hence,
are
passive,
forming the basis of the other three groups - active
methods.

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2. Administrative methods come down to
openly forcing people to do one thing or another
activities, or to create opportunities for
such coercion. The condition for the use of such
methods is the predominance of unambiguous
ways to solve problems, deviation from which
unacceptable.
That's why
on
practice
administrative methods are implemented in the form
specific
without options
tasks, tasks
allowing minimal independence
performer,
due to
what
all
responsibility rests with the manager,
giving orders.

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3. Economic methods. As a result
significant complication of forms of activity,
requiring people to make a quick decision
many
emerging
problems,
administrative methods stopped responding
real management needs. Needed
there were others that allowed the performers themselves
take initiative based on material
interests and be responsible for the decisions taken by them
solutions. These methods, called
economic, appeared at the beginning of the 20th century in
largely thanks to the efforts of the American
engineer Frederick Taylor - founder
scientific management.

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Economic
methods
management
suggest an indirect effect on it
an object. The performer is installed only
goals and general line of behavior, within
which he himself seeks most
his preferred ways to achieve them.
The initiative shown is beneficial not only
for the employee, but also for the company, timely
and high-quality completion of tasks in every possible way
are rewarded primarily through
cash payments. Thus, at the heart of these
methods
lies
economic
employee interest in results
of your labor.

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4. Social and psychological methods.
Economic methods are quite fast
showed their limitations, especially when
management
activities
persons
intellectual professions for which
money, of course, is significant, but by no means
the most important incentive to work.

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The production system represents
yourself
isolated
V
result
social division of labor part
production
process,
capable
alone or in collaboration with
others
similar
systems
satisfy
those
or
others
needs,
needs
And
requests
potential
consumers using products produced by this
system of goods and services.

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Emergence
that
or
other
production system (PS) is determined by
emergence or formation on the market
demand
on
products,
capable
meet customer requirements.
Hence,
PS
must
be
adapted
To
long-term
meeting customer demand.

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The most difficult problem arising
at
definition
PS
How
object
strategic
management,
becomes
problem
calculations
elements,
the totality and interaction of which
create objective prerequisites for
goal setting, on the one hand, and for choice
preferred
strategies
achievements
long-term global goals - on the other.

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For example, let us indicate that the elements of PS
are
production
funds
And
personnel with their subsequent specification
by type (type, model) of equipment or
professional
signs
personnel
(specialties, qualifications). Similar
isolation, however, does not yet allow
Right
estimate
state
external
economic environment to formulate
strategic
goals
And
definitions
the company's readiness to achieve them.

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As part of a PS at any hierarchy level
(enterprise, workshop, site, workplace)
traditionally include the following resources:
1. Technical resources (features
production equipment, inventory,
basic and auxiliary materials, etc.
P.).
2. Technological resources (flexibility
technological
processes,
Availability
competitive ideas, scientific groundwork and
etc.).

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3. Human resources (qualifications,
demographic composition of workers, their
ability to adapt to change
PS purposes).
4.
Spatial resources (character
production premises, territory
enterprises, communications, opportunity
extensions, etc.).

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5.
Organizational resources
control systems
structures
(nature and flexibility of the control system,
speed
passing
managers
influences, etc.).
6.
Information resources (character
information about the PS itself and the external environment,
possibility of its expansion and improvement
reliability, etc.).
7. Financial resources (state of assets,
liquidity, availability of credit lines and
etc.).

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Every
from
specified
species
resources
represents a set of possibilities
PS to achieve your goals. It means,
that, having at one’s disposal certain
means of production (machines, auxiliary
equipment, raw materials and supplies, tools
and inventory, etc.), personnel (workers
relevant
ranks,
engineers
appropriate
qualifications,
scientific
employees
And
T.
d.),
production
premises with certain characteristics,
roads, structures and other resources, substations
capable to one degree or another of satisfying
changing needs, demands and demands
potential buyers.

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IN
result
interactions
everyone
components of the resource system are obtained
new properties that each individual
the resource type does not have. These properties
are designated by such a concept as effect
integrity of the system.

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For example, it is impossible to timely display
the desired market segment, a product that meets it
requirements without having the appropriate
resources
everyone
types:
opportunities
equipment used and used
technology, qualifications
frames, etc. And, conversely, each individual
the resource cannot be fully revealed outside
connections with other resources: opportunities,
which the machines have cannot be
implemented
without
appropriate
qualifications of workers, without application
relevant main and auxiliary
materials without the required characteristics
production premises.

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In a market economy, a significant role
plays such a human resource as
entrepreneurial
ability
(enterprise). It's a special kind
resource that sets in motion
organizes the interaction of everyone else
types of PS resources.

2
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Industrial
process
on
industrial enterprise represents
yourself
totality
interconnected
labor processes and natural processes, in
as a result of which the starting materials
are transformed into finished products (products).

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A product is any item or
kit
items
labor,
subject to
manufacturing at enterprises (parts,
assembly
units,
complexes
And
kits).
The manufacturing technology of the product consists
from
row
operations,
carried out
V
a certain sequence.

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Operation
called
Part
technological process performed on
a certain subject of labor at one
workplace by one worker or team.
Organization of production processes
requires an integrated approach, starting with
classification of these processes and ending with them
construction in space and time.

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Production processes according to their role in
the general structure of production is divided into
basic,
auxiliary
And
serving.
The main one is called production
process,
which
performed
directly
For
manufacturing
provided for
plan
products
enterprises.
Totality
main
production
processes
amounts to
the main production of this enterprise.

Scheme of the main production process of the enterprise

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Scheme of the main production
enterprise process

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The main production of the enterprise is usually
consists of three stages: procurement,
processing and assembly.
.

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At the procurement stage they are made
blanks (castings, forgings, stampings, etc.),
which undergo further processing.
At the processing stage of the workpiece or
basic materials are processed
(mechanical, thermal, electrochemical
etc.) and turn into finished parts,
which
are being sent
on
assembly
or
sold externally. Assembly stage
production includes plumbing and assembly,
testing, painting, packaging and
other
processes,
V
result
which
the finished product of the enterprise is obtained.

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An auxiliary process is called
ensuring the implementation of the main
production, for example, production for
own
needs
tool
And
devices, various types of energy,
repair of equipment and structures, etc.
Set of auxiliary processes
forms auxiliary production
enterprises (for example, instrumental,
repair, energy, etc.).

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Attendants
processes
nourish
main and auxiliary production
materials,
semi-finished products,
tools
And
devices,
carry out
loading,
unloading
And
storage
material and energy
resources. The totality of such processes
forms
serving
production
(farm)
(For example,
transport,
warehouse, etc.).

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Auxiliary
And
serving
processes are not directly related to
production, but they are necessary for
ensuring rhythmic, efficient movement
main process.
The experience of enterprises shows that
efficiency of main production
processes and the enterprise as a whole in many ways
depends
from
level
organizations
auxiliary
And
serving
processes.

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At
organizations
production
processes in each specific case
it is necessary to take into account scientifically
influence of main factors.
The main factors determining

are:
constructive and technological
peculiarities
(character)
produced
products, production volume (annual
production
program)
And
view
production specialization.

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Principles of production organization
processes:
Specialization of the production process
involves its division into components
parts and assignment to individual workers
in some places,
production
in sections
limited number of detail operations,
technological processes.
IN
these conditions appear objective
possibilities for effective use
high-performance equipment.

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Proportionality
-
This
performance consistency and
production
capacities
everyone
production
divisions
enterprises and individual workplaces.
Promotion
degrees
proportionality
allows
more
full
use
production equipment, basic
funds in general.

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Continuity
-
this
principle
is that each subsequent
operation of a given technological process
production facility begins to execute
immediately after the completion of the previous one, i.e.
there are no time breaks. Thanks to
this reduces the cycle time
production,
is improving
usage
revolving funds.

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Parallelism
assumes
V
certain
degrees
simultaneous
execution of technological processes
manufacturing of parts (assemblies)
the same product over time.
Increasing the level of parallelism leads to
To
reduction
duration
cycle
manufacturing
products,
improvement
use
negotiable
funds
enterprises.

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The straightness is that
all production facilities in progress
production in space takes place along
the shortest path without backtracking.
This can be achieved with subject matter
specialization and application of flow forms
organization of production. As a result
efficiency of use increases
transport
funds,
A
Also
production equipment is decreasing
cost of production.

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Rhythm
assumes
such
organization of production processes,
when they are performed in equal periods of time
certain (equal) amounts of work and
equal quantities of products are produced.
Highest level of rhythm
achieved
at
complete
compliance
requirements of the principles noted above. IN
as a result of implementing this principle
rise
All
basic
technical and economic indicators of production.

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Automaticity is
maximum possible and economically
expedient automation of both partial
processes and the production process
generally. The main result of automation is
significant increase in productivity
labor.

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Enough
complete
compliance
requirements
listed
principles
organization of production processes
possible with the use of appropriate
forms of organization of production and labor,
ranging from workplaces, production
plots
And
cumming
workshops
And
production units.

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The type of production means
totality
signs,
defining
organizational and technological
characteristics of the production process,
carried out both at one workplace,
and on their totality on a site scale,
workshop, factory.

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The type of production is the most important
parameter defining forms and methods
organizations
labor,
production
process,
operational calendar
planning, control systems, etc.

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IN
basis
classifications
types
production is based on the following factors:
character
(structural and technological
features) and range of products produced
products,
volume
release
(annual
production
program),
degree
constancy of nomenclature. Depending on the
these factors also change in type and level
production specializations, ranging from
workplace and ending with the enterprise.

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Based on these main factors on
industrial enterprises vary
three main types of production: single,
serial and mass.

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Unit
type
production
characterized
manufacturing
wide
range of products, the production of which
for a long time (a year or more),
As a rule, it is not repeated. Wherein
jobs have no specific
specializations.

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Serial
type-characterized
production of a limited range
products with a certain structural and technological homogeneity. Wherein
The production of each product is repeated
With
certain
frequency.
IN
dependencies
from
degrees
repeatability
differentiate
following
varieties
serial
production:
small-scale,
medium-scale and large-scale. Wherein
workers
places
have
certain
specialization directly proportional
serial level.

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Mass
type
production
characterized by a narrow range of products
(one or more), the release of which
continuously
repeats itself
V
flow
for a long time (years or more).
At the same time, jobs are maximized
specialized (one, two, up to three
detail operations).

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Type
production
determined
coefficient of assignment of transactions to
workplace, production area,
the workshop and the enterprise as a whole. Coefficient
consolidation
operations
production
area can be determined by the formula:

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where ki is the number of technological operations on the i-th part; w-number of jobs on the site;
kз - number of standard sizes of parts,
processed in this area during
month.
Depending on the value of kz, it is determined
serial number:
kз>21-40-unit
production,
And
small-scale
kз=11-20-medium series, production,
kз= 4-10 - large-scale production,
kз= 1-3 - mass production.

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Type of production of the enterprise that
specialized in the production of one type
products, determined by the type of production
presenter
workshops
On
industrial
enterprise
leading
workshop
is
assembly or mechanical assembly.

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At the same enterprise it is possible
presence of several types of production.
Hence,
If
company
specialized in the production of several
types of products, then the type of its production
determined by type of production
products where the bulk of the workforce is occupied
forces or where significant
part of fixed production assets.

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Technical and economic
characteristic
each type of production is given based on
the following
factors:
applied
equipment, worker qualifications, level
development
technological
processes,
interchangeability
products,
level
economic indicators.

3
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Operational production planning
is
V
development
the most important
volumetric
And
calendar
indicators
production and economic activities
enterprises.

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Any operational planning process
provides for the implementation by economists and managers of such stages of activity,
How
choice
strategies
development
enterprises,
justification
organizations
production, definition of logistics
material flow patterns,
development of basic calendar plans
standards, organizational preparation
production,
direct
organization of operational work, current
control and regulation of production progress.

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Main
task
operational
planning ultimately comes down to
ensuring the enterprise has a well-coordinated and
rhythmic progress of all production
processes
With
purpose
the greatest
satisfaction
main
needs
market,
rational
use
available
economic
resources
And
maximizing profits.

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In operational production planning
V
dependencies
from
being developed
the following basic indicators are used
methods such as volumetric, calendar, as well as
their varieties: volume-calendar and
volumetric-dynamic.

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The volumetric method is intended for
distribution of annual production volumes
and sales of the company's products
individual units and shorter
time intervals - decade, week,
day and hour. This method does not require
only
distribution
works,
But
And
optimization
use
production assets, and, firstly
queue, technological equipment and
assembly
areas
behind
planned
time interval.

Calendar
method
applies
For
planning specific time frames
launch and release of products, standards
duration
production
cycle
And
advances in the production of individual works
relatively
release
head
products,
intended
For
implementation
on
appropriate
market.
The
method
is based on the use of progressive
time standards for calculating production
manufacturing cycles for individual parts and
planned sets of products, as well as
performing assembly processes.

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The volumetric calendar method allows
plan simultaneously deadlines and volumes
work performed at the enterprise in general on
the entire stipulated period of time - a year,
quarter, month, etc. With its help
are calculated
duration
production cycle of production and delivery
products to market, as well as load rates
technological equipment and assembly
stands in each division of the enterprise.
This method can be used to develop
monthly production programs as
producing and non-producing workshops and
plots.

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Volume-dynamic
method
provides for close interaction between such
planning indicators, such as deadlines,
volumes and dynamics of production,
goods and services. In market conditions, this method
allows you to most fully take into account volumes
demand
And
production
possibilities
enterprises
And
creates
planning and organizational
basics
optimal
use of available resources at each
enterprise. It involves building
schedules
execution
orders
consumers and production loads
sites and production shops.

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In accordance with the considered methods
it is necessary to distinguish between the following types
operational production planning:
calendar, volumetric and mixed.

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Norms
time
serve
primary
calendar-planned
standard.
Under
the norm
time
are understood
scientifically
reasonable costs of working time,
necessary to carry out work in
certain production conditions.
There are norms of piece and piece calculation time, as well as per batch
details.

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Calendar standards and overwhelming
part of the planned operational indicators
regulation of production progress
must
be developed
on
basis
progressive time standards for individual
technological operations and processes, and
also for final products and total
production processes.

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IN
operational
planning
can
different types of time standards apply: in
single
production
-
piece-calculation time, in serial - time
for processing a batch of parts, in bulk -
piece time.

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Batch size of processed products
serves
first
volume-planned
standard. Below the lot of parts on
enterprises
is understood
quantity
identical parts processed at
interconnected
workers
places
With
one-time
cost
preparatory and final time.

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Planning batch sizes for launching parts is important and complex
economic task, since with its
the calculation must take into account many
interacting in different directions
factors. For example, increasing the size
batches of parts leads to cost reduction
on
readjustment
equipment,
growth
productivity
labor,
improvement
operational planning. In the same time
storage costs increase
material
stocks,
slows down
turnover
resources,
is decreasing
uniformity of cash flows.

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The size of the batch of parts is determined by
So
called
leading
operations.
Received minimum batch value
launching parts are adjusted to the side
increase
With
taking into account
necessity
ensuring the required workload,
volume and time of delivery of products to the market,
production throughput
site and other factors.

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The batch size of the parts serves as the main
calendar-scheduled standard in serial
production. Its magnitude predetermines
all other operational and production
And
economic planning
indicators
enterprises, in particular, the frequency or
rhythm
production,
duration
production cycle, delivery times
goods and services to the market, etc.

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The production cycle is one of
important calendar and planning standards such as
operational,
So
And
strategic
planning
on-farm
activities of the enterprise. He imagines
is the calendar time interval from
start until the end of production
process
manufacturing
details
or
performance of works and services.

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The production cycle includes working
period
execution
procurement,
processing and assembly processes, and
also control, transport and warehouse
operations.
Duration
production
cycle
determined
many
interconnected
organizational and technical,
economic planning,
social, labor and other characteristics
specific enterprise as a complex system
in the market economic mechanism.

Faculty of Applied Sciences
computer science
Duration
any
complex
production
cycle
is composed
from
individual simple or partial cycles,
including the execution time of workers
processes and regulated breaks.
For example, when processing parts in batches
the production cycle will be equal to the sum
time
individual
operating rooms
And
interoperational cycles.

Faculty of Applied Sciences
computer science
In the process of developing operational
production plans, other than those discussed
basic calendar and planning standards,
wide
apply
And
other
organizational indicators that make up
the basis of operational accounting, control and
regulation
deviations
from
planned
normal
progress
production and delivery of products to the market.

Faculty of Applied Sciences
computer science
The most important
planned
functions
production management are
operational accounting and control of activities
enterprises or firms. They serve important
source of information about the progress of the process
production,
degrees
use
resources, the magnitude of the results obtained and
etc.

Faculty of Applied Sciences
computer science
Comparison of the most important factual and
planned performance indicators of the enterprise
is a very accurate and objective assessment
achievements
his
current,
tactical
And
strategic goals and objectives.
For
adoption
operational
planning and management
solutions
economists, managers and executives need constant and
reliable
accounting
or
reporting
production and economic information about
progress in the implementation of volumetric plans and
work schedules of the enterprise for the past and
current time periods.

Faculty of Applied Sciences
computer science
The main objects of operational accounting
and production control are different
economic planning
indicators:
from
hourly or shift-daily assignments up to
annual production and sales volumes
products and services.

Faculty of Applied Sciences
computer science
In single production, first
queue, deadlines are taken into account and controlled
execution of individual orders in advance
developed
cyclic
or
network
plans and schedules.

Faculty of Applied Sciences
computer science
IN
serial
production
objects
operational control is the launch timing
and release of a batch of parts, the state of cycle
and warehouse reserves, compliance with standards
advances by processing stages, etc.
In mass production as
objects of current accounting and control can
serve the planned indicators of tact and rhythm
operation of production lines, design standards
interoperational and linear backlogs, as well as
daily and hourly production schedules and
supply of finished products to the market.

Faculty of Applied Sciences
computer science
In the process of operational accounting, the main
the meters are usually known
natural,
volumetric
And
temporary
indicators,
covering
processes
production and consumption of products,
standards
consumption
And
use
production resources, defect rates
and other losses.

Faculty of Applied Sciences
computer science
Operational accounting is closely related to the current
enterprise reporting. Current reporting
V
dependencies
from
appointments
It happens
internal and external. On-farm
reporting is intended for control
work of workshops, departments, sections, teams;
external
-
For
representation
V
government and economic bodies
management,
For example,
V
tax
inspection. In addition to operational accounting, on
enterprises have accounting and
statistical accounting of production.

Faculty of Applied Sciences
computer science
Operational regulation of processes
production and consumption of products is
in market conditions the most important stage
systems
operational
planning,
aimed at complete satisfaction
consumers in manufactured goods and
services. Therefore, not only at the stage of feasibility planning, but also during
operational
regulation
production
it is necessary to continuously take into account the actual
performance
orders
outfits
And
planned shift-daily tasks.
Operational regulation of production at
enterprises
accepted
call
dispatching.

Faculty of Applied Sciences
computer science
Dispatching
is
yourself
constant
operational
control
And
continuous current stroke control
production
With
purpose
provision
timely and complete implementation
plan for the production and sale of products in
compliance
With
available
orders,
contracts and customer requirements.

Faculty of Applied Sciences
computer science
Process
includes:
dispatching
production
studying
market conditions
market
And
forecasting the need for manufactured
enterprise goods and services;
identifying possible fluctuations in demand for
products taking into account seasonal and other
changes;
drawing up operational production plans
and sales of products on the current market;
development of volumetric calendar
execution
operational
divisions of the company;
graphs
plans

Faculty of Applied Sciences
computer science
operational accounting of actual progress
execution
developed
calendar production plans and schedules;
identification
deviations
actual
indicators of the progress of production of goods and
services from planned;
Adoption
operational
solutions
By
prevention and elimination of deviations and
interruptions during production;
analysis
reasons
deviations
from
established task plans and development
measures to eliminate such deviations;

Faculty of Applied Sciences
computer science
coordination
interconnected
enterprises;
current
work
divisions
operational planned management of work
production workshops and functional
services

DEPARTMENT OF INFORMATION SCIENCE

Computer technologies in science and education

Part 1. Theoretical foundations of information technologies in education and science

Barnaul 2011

Approved at a meeting of the Department of Computer Science

Computer technologies in science and education: lectures for students in the direction 071400.68 Social and cultural activities / comp. N.N. Shakhavalov; AltGAKI, Department of Informatics. – Barnaul: AltGAKI Publishing House, 2011. – 67 p.

Compiled by:

N.N. Shakhovalov, candidate of pedagogical sciences,

Reviewer:

O.P. Kutkina, candidate of pedagogical sciences,

Associate Professor of the Department of Informatics of AltGAKI.

©AltGAKI, 2011

EXPLANATORY NOTE

In modern conditions, professional training of specialists in any subject area requires sufficiently deep knowledge in the field of computer technology. Many problems, the solution of which was previously considered impossible, are now successfully solved using computer technology. This applies to the creation and complex processing of modern local and distributed documents, relational databases, computer modeling of complex systems, in particular pedagogical systems with formalized feedback.

The proposed discipline helps students develop a comprehensive understanding of computer technology as an organic component of information technology, which allows them to significantly increase the efficiency of processing information of a scientific and educational nature.

Lecture materials include the following sections: information, informatization and information society, basic computer technologies in science and education, information technologies in higher education, informatization of science.

Lecture 1. Information, informatization and information society

    Concept and features of the information society

    The concept of “information”, its types

    The concept of “information resource”

    Informatization, its main tasks

    Information market, its sectors

    Information sources

    The concept of “system”, its features

    The concepts of “information system” and “automated information system”

    Subject area of ​​an automated information system.

    Classification of automated information systems

Lecture 2. Basic computer technologies in science and education

    The concept of “information technology”

    Generations of computer and information technology development.

    Classification of information technologies

    Main trends in the development of information technologies.

    Computer technologies for processing text information

    Computer technologies for processing tabular information

    Computer technologies for working with databases

    New information technologies in education

    Information retrieval technology

    Computer Information Security Basics

    Method of "intelligent search" of passwords

    E-commerce

    Basics of creating and promoting websites on the Internet

Transcript

1 information resources, in general, and information systems, in particular, in education and scientific research; The discipline should contribute to a deeper understanding of theoretical and practical problems in the sphere of informatization of social life by undergraduates. Objectives of the discipline: to reveal the structure and content of the range of problems in the use of computer technologies in science and education; characterize the main directions, means and methods of using computer technologies in science and education; to form ideas about the scientific foundations of the use of computer technologies in science and education; ensure the formation of professional skills in the field of application of computer technologies in science and education. 2 The place of the discipline in the structure of OOP The study of the discipline “Computer Technologies in Science and Education” provides the scientific and methodological foundations for preparing a master’s student as a future systems analyst. It helps students develop a holistic understanding of the features and scientific foundations of the use of computer technologies in science and education. The discipline is based on the general training received by bachelors while studying the disciplines of the curriculum of basic higher education. 3 Requirements for the results of mastering the discipline The graduate must have the following competencies: - awareness of the social significance of his future profession, intolerance of corrupt behavior, respect for the law and the law, possession of a sufficient level of professional legal awareness (OK-1); - the ability to conscientiously perform professional duties, comply with the principles of legal ethics (OK-2); - the ability to improve and develop one’s intellectual and general cultural level (OK-3); - ability to freely use Russian and foreign languages ​​as a means of business communication (OK-4); - competent use in practice of acquired skills and abilities in organizing research work and in team management (OK-5). As a result of studying the discipline, a master's student must: know: basic information technologies, their methods and means; scientific foundations of the application of basic computer technologies in science and education; the essence and content of typical tasks in the field of application of computer technologies in science and education; main directions of development and application of computer technologies in science and education;

2 be able to: pose and solve typical problems in the field of application of computer technologies in science and education; apply the acquired knowledge to understand the patterns of development of the state and law; for use in the process of lawmaking and research work, select and use adequate forms, methods and means of computer technology; evaluate the effectiveness of the use of computer technologies in science and education. own: trends in the application of computer technologies in science and education; new methods and means in the field of application of computer technologies in science and education; theoretical foundations of informatization of scientific research. 4 Scope of discipline and types of academic work Type of academic work Total hours Classroom classes (total) 30 Semesters C Including: interactive lectures 6 practical classes 12 seminars 12 laboratory work Independent work (total), including: mastering recommended literature, studying, 42 preparation of creative work, preparation for classes Type of intermediate certification 36 exam Total labor intensity hours of the discipline credit units 5 Contents of the discipline 5.1 Contents of the sections of the discipline Name of the subsection of the discipline 1 Introduction to information technologies Contents of the section General characteristics of information technologies Problems of informatization of scientific research and education. Types of information technologies (IT). History and evolution of IT. Global, basic and specific IT. IT in management. IT processing of graphic objects. Models, methods and means of IT implementation. IT design automation systems. Structural analysis tools. Tools for creating applications locally and

3 paragraphs Name of the discipline section Contents of the section: integrated. CASE technologies. Computer methods and technologies for data analysis and interpretation Automated data banks. Subject area. Levels of information presentation. Information models for data representation. Information languages. Database management system. Centralized data management concept. Three-level architecture of database systems. Functions of the data bank administrator. DBMS functions. Data types. Data models: hierarchical, network, relational, post-relational, multidimensional, object-oriented. Use of high level languages ​​and spreadsheets for data processing. Formation of requests. Development of forms. Preparation of reports. Computer decision support systems Decision making problem. Conditions for developing a solution, analysis of problem situations. Types of decision making problems. Tasks containing risk. Decision making process. Edgeworth-Pareto set. Typical decision making problems. Axioms of rational behavior. Decision trees. Irrational behavior. Multicriteria optimization methods. Decision-making problems with subjective models. Fuzzy sets. Fuzzy decision making strategies. Fundamentals of utility theory. Methods for analyzing unstructured problems. Decision support systems. Local and global computer networks Architecture of computer networks. Physical, topological, logical and software structures. Open systems. Levels. Services and protocol layers. Reference model for open systems interaction. Lower and upper levels. Application processes. Users and end systems. Administrative management. Transport and communication networks. Logical and physical channels. Formats and fields. Protocol blocks. Packing and unpacking protocol blocks. Topology of local networks. Multiple access methods. Terrestrial and cable local networks. Single-node networks. Monochannel networks. Ring cyclic networks. Standards. Integrated service networks. Architecture. Narrowband and broadband networks. Interfaces and protocols. Information channels and control channels. Network as a resource. Resource sharing. Types of information work. Information and reference service of the network. Network applications. Characteristics of information storage and retrieval processes. Organizing data in arrays. Types of information searches. Examples

4 p/n Name of the discipline section 2 Computer technology tools 3 Distributed systems in science and Contents of the information services section. World information networks. Internet. Search for scientific and technical information on the Internet Internet technologies. Addressing. Protocols for file sharing, email and remote control. Types of conference calls. Web technologies. Languages ​​and tools for creating Web applications. Hypertext information technologies. Computer graphics in scientific research Types of computer graphics. Areas of application of computer graphics. Classification and review of modern graphic systems. Building graphic systems: graphics core, applications, tools for writing applications. Standards in the field of graphics systems development. Technical means of computer graphics. Coordinate systems, transformation of graphic information. Graphic information storage formats. 2D and 3D modeling in graphic systems. Problems of geometric modeling. Types of geometric models, their properties, parameterization of models. Geometric operations on models. Raster and vector graphics. Vector graphics file formats. Algorithms for two-dimensional computer graphics. Three-dimensional graphics algorithms. Visualization algorithms. Hypermedia and multimedia systems The concept of multimedia technology; classification and areas of application of multimedia applications. Basic concepts and terminology. Evolution of multimedia technology. Multimedia products for educational purposes. Typical tasks associated with the use of multimedia technology in education. Features and requirements for multimedia products for educational purposes. Multimedia technology hardware. Setting up a multimedia environment. Information input devices. Information output devices. Devices for recording and storing information. File types and formats: text, graphics (raster and vector graphics) and sound files. Elements of multimedia technology. Hypertext. 3D graphics and animation. Video. A virtual reality. Database integration. Software tools for creating and editing multimedia systems. Stages and technology of multimedia project implementation. Replication and implementation of multimedia products. Prospects for the use of multimedia technology. Distributed databases The concept of distributed information processing.

5 p/n Name Contents of the section of the education discipline section Distributed data. Combined forms of data distribution. Centralization and decentralization of data. Strategies for building distributed databases. Distributed database management systems (DBMS). The place of databases and knowledge in science and education. Basic concepts and definitions of the subject area of ​​databases and knowledge. Logical and semantic integration of distributed databases. Elements of the theory of relational databases. Object-oriented approach and information system databases. Integration of Internet resources with distributed databases Methodological basis for the integration of distributed databases. Integrated distributed databases. Basic methods and tools for implementing integrated distributed databases. Introduction to CASE technologies. Elements of using SQL servers in client-server architecture. Integration of a distributed system into an existing network infrastructure. Compatible with Web technologies. Integration of various Web materials (flash, vrml, Java). Technical characteristics of the integrated systems. Workplace (client). Support for standard Web browsers (Netscape, Explorer, etc.). Server platform. Support for MS Windows operating systems and the UNIX family. Distance learning Education as an information system. Elements of the education system. Education and training. Student and teacher. Technological process of education. Distance learning systems. Automated training systems. Corporate information systems for distance learning. Technologies and means of distance learning. Electronic multimedia textbooks. Video conferencing. Global and personal information spaces. Internet and personal computer in distance education. Educational process management information systems (IMS). Analysis of the subject area, construction of an information model. MIS architecture, composition and functions of MIS subsystems. MIS tools. MIS design technology

6 5.2 Sections of the discipline and interdisciplinary connections with subsequent disciplines p/n 1 2 Name of subsequent disciplines Modern problems of legal science Methods of teaching jurisprudence in higher education sections of this discipline necessary for the study of subsequent disciplines Sections of disciplines and types of classes p/n Classroom classes Name Self-interaction practical seminars laboratory section Total disciplines work lectures classes classes Introduction to information technology Computer technology tools Distributed systems in science and education TOTAL = Practical classes Practical work 1 Information technology methods in science and education Practical work 2 Information technology tools in science and education Practical work 3 Distributed systems in science and education Practical work 4 Distance learning 7 Sample checklist for independent work 1. Information space in the field of education. 2. Information space in the sphere of scientific research. 3. Information technology (IT) is the basis of research and learning processes. 4. Specifics of using IT in scientific research. 5. Specifics of using IT in education. 6. Specifics of basic software in science and education. 7. Middleware in science and education. 8. Specialized applications, local and integrated. 9. Automation of application creation - CASE technologies. 10. Specialized software tools - CASE tools. 11. Automated data structures. 12. Distributed data structures. 13. Formation of distributed data structures.

7 14. Administration in distributed data structures. 15. Data types and data representation models. 16. Post-relational DBMS. 17. Data storage. 18. Data kiosks (showcases). 19. Data Mining. 20. High-level information languages. 21. Global information networks, Internet. 22. Basic Internet technologies. 23. Web site architecture. 24. Creation of a Web site. 25. Features of Web design in educational systems. 26. Psychological and pedagogical features of Internet training systems. 27. Programming languages ​​for Internet technologies. 28. CASE tools for creating Internet applications. 29. Hypertext information technologies. 30. Distributed data structures and distributed information processing on the Internet. 31. Internet data management. 32. User interface in Internet systems. 33. Organization of Internet technologies in education. 34. Organization of Internet technologies in automated systems for scientific research. 35. Assessing the effectiveness of Internet technologies. 36. World market for Internet services. 37. Internet services market in Russia. 38. Mathematical foundations of computer graphics. 39. Geometric modeling. 40. Standards in the field of graphics systems. 41. Key problems of informatization of scientific research and education. 42. Systematic approach to education. 43. Systematic approach to scientific research. 44. System model of the organization of an educational institution. 45. System model of organization of a scientific institution. 46. ​​Distributed data structures and distributed information processing. 47. Theory of relational databases. 48. Object-oriented approach and information system databases. 49. The place of databases and knowledge in science and education. 50. Logical integration of distributed databases. 8 Approximate list of topics for abstracts, reports and essays 1. Educational institution as an object of management. 2. Educational activities as a set of business processes. 3. Features of the process approach to managing the educational process. 4. Automated educational process management systems. 5. Typical management tasks in the field of education. 6. Process approach to managing an educational institution. 7. Automated educational institution management systems. 8. Territorial automated education management systems. 9. History of ASU University. 10. Classification of typical subsystems of university automated control systems. 11. Subsystem “Applicant”.

8 12. Subsystem “Student”. 13. Subsystem “Schedule”. 14. Features of financial management of an educational institution. 15. Features of managing the economic activities of an educational institution. 16. CASE technologies for creating automated education management systems. 17. Typical tasks associated with the use of multimedia technology in education. 18. Information infrastructure of distance educational systems. 19. Integration of training systems into the global information space. 20. Server platform of the distance learning system. 21. Vector and raster graphics. 22. Graphical interface as the basis of an automated training system. 23. Graphical interface as the basis of an automated scientific research system. 24. Standard graphics system architectures. 25. Organization of the kernel of graphic systems. 26. Formation of graphic applications. 27. Technical means of computer graphics. 28. Computer graphics software. 29. Problem and typical decision-making tasks. 30. Operations research methods in decision theory. 31. The concept of multicriteria optimization. 32. Multicriteria optimization of solutions based on objective models. 33. Decision-making problems with subjective models. 34. Decision-making strategies under conditions of uncertainty. 9 Sample list of exam questions for the entire discipline 1. Expert systems as the basis for decision support. 2. Neural networks are the basis of decision making. 3. Fuzzy sets are the basis for decision making. 4. Specifics of decision support systems in scientific research and education. 5. Architecture and typical topologies of computer networks. 6. Distributed information storage systems. 7. Integrated information service networks. 8. Educational information resource. 9. Information resource for the field of scientific research. 10. Features of information search in educational systems. 11. Automated training systems. 12. Russian market of graphic systems. 13. Classification of multimedia technologies. 14. Areas of application of multimedia technologies. 15. Classification of multimedia technology hardware. 16. Multimedia technology software. 17. Multimedia technologies in education. 18. Classification of multimedia technology services. 19. Typical multimedia tasks in education. 20. Features of models, methods and means of multimedia technology in education. 21. Features of models, methods and means of multimedia technology in science. 22. Classification of multimedia technology in scientific research. 23. Typical multimedia tasks in scientific research. 24. Life cycle of software. 25. CASE tools for creating multimedia applications. 26. Assessing the effectiveness of multimedia technology.

9 27. Global market for multimedia technology. 28. Typical tasks associated with the use of multimedia technology in education. 29. Information infrastructure of distance educational systems. 30. Integration of training systems into the global information space. 31. Server platform of the distance learning system. 32. The concept of “virtual class”. 33. The concept of “electronic textbook”. 34. Subject area of ​​MIS. 35. Information model for managing the educational process. 36. Tools for managing the educational process. 37. ISU design technologies. 38. Composition and functions of subsystems of the educational process management information system. 39. Training systems in corporate information networks. 10 Educational, methodological, material, technical and information support of the discipline a) Literature Main 1. Information systems and management technologies [ER]: textbook for university students / Ed. G. A. Titorenko. - M.: UNITI-Dana, Onokoy L. S. Computer technologies in science and education [Text]: textbook. allowance / L. S. Onokoy. - M.: INFRA-M, Pismensky, A. G. Quality management of the educational process in a university implementing information and telecommunication educational technology (on the example of the Modern Humanitarian Academy) [Text] / A. G. Pismensky. - M.: SGA, Pismensky, G. I. Distance learning in the system of higher professional education [Text] / G. I. Pismensky. - M.: SGA, Additional 1. Kazantsev, S. Ya. Computer science and mathematics for lawyers [Text] / S. Ya Kazantsev. Statement of the Ministry of Defense of the Russian Federation. - M.: UNITI-Dana, Karpenko, M. P. Teletraining [Text] / M. P. Karpenko. - M.: SGA, Osin, A.V. Multimedia in education: the context of informatization [Text] / A.V. Osin. - M.: Agency "Publishing Service", Patarakin, E. D. Social interactions and network learning 2.0 [Text] / E. D. Patarakin. - M.: NP "Modern technologies in education and culture", Tokarev, V. L., Computer support for decision making [Text] / V. L. Tokarev. - M.: SGA, Fedorov, S. E.. Computer technologies in science and education (for masters) [Text] / S. E. Fodorov. - M.: SGA, Yashin, V. M. Computer science: personal computer hardware [Text] / V. M. Yashin. - M.: INFRA-M, Grif UMO b) Logistics for a server based on MS SQL Server, a file server with an electronic educational resource, databases; computers with Internet access;

10 “Personal Studio” website with the ability to work with an electronic educational resource; electronic library resources located in the telecommunication two-level library (TKDB). c) Information support Software of NACHO HPE SGA, which is part of the electronic information and educational environment and is based on telecommunication technologies: Computer training programs. Training and testing programs. Intelligent robotic systems for assessing the quality of work performed. Robotic systems for access to computer educational, training and testing programs: IS “Kombat”; IS "LiK"; IR "KOP"; IIS "Cascade". databases, information, reference and search systems: Federal portal “Russian Education” and “Education on the Runet” - regulatory materials of the Ministry of Education and Science of the Russian Federation on the Informatics server - regulatory framework of education on the server of the Federal Educational Portal - Scientific Pedagogical Library named after. K.D. Ushinsky. 11 Types of educational work and teaching technology At NACHO HPE SGA, the development of educational programs is carried out using exclusively e-learning and distance educational technologies. For this purpose, an electronic information and educational environment has been created and operates, which includes electronic information resources, electronic educational resources, information Roweb technology, telecommunication technologies, appropriate technological tools, and also ensures that students master educational programs in full, regardless of the location of the students. Information Roweb technology and telecommunication technology of education provides access to electronic educational resources (educational content and educational products), as well as electronic information resources to the student in full, on the “Personal Studio” website (edu.muh.ru) on the Internet. In accordance with the educational and methodological complex for the academic discipline, the following types of training sessions can be used. Classroom classes All types of classroom classes combine educational, educational, practical and methodological functions. Interactive modular lecture is a lecture session using modern information tools, designed for students to acquire theoretical knowledge within the framework of the material of the module of the academic discipline. Studying is educational work on structuring and analyzing the content of educational and information resources in an academic discipline, the result of which

11 is the preparation of notes, theses, drawing up logical diagrams or classifications on the topic being studied, as well as a glossary of basic terms and concepts, facts, personalities and dates. Test-training training session, designed to consolidate the basic theoretical knowledge of the undergraduate within the framework of the module material, is carried out using training software based on an electronic database of tasks. Work in the information knowledge base and IP-helping, the student’s work with the resources of the integral library and receiving consultations from teaching staff, leading researchers and practitioners using a special electronic system in asynchronous mode. Unit testing is a control event based on the material of each module of the discipline, which implements knowledge control for the module using funds of assessment tools. Pre-exam testing is a control event, the purpose of which is to identify unmastered and poorly mastered issues of the discipline before the exam and prepare the student for the electronic exam procedure. Seminar (master's degree) is a collective lesson under the guidance of a teacher using the results of master's students' work with educational and scientific literature. The seminar is conducted in an interactive form (in dialogue mode, group discussions, discussion of the results of research work). Research work of master's students (MRW) is work of a scientific nature related to scientific research, conducting research in order to expand existing and obtain new knowledge, test scientific hypotheses, establish patterns that appear in nature and in society, scientific generalizations and scientific substantiation of projects. Students' research work is a mandatory section of the master's program and is aimed at developing universal and professional competencies. A creative essay is an independent educational scientific and methodological work, the main goals of which are to develop in undergraduates, first of all, research skills and abilities - such as: the correctness of setting the goal of the problem, identifying the object and subject of research, formulating tasks and work hypotheses; logic of presentation of the work, correlation and interrelation of theoretical and empirical material; competent presentation of the work, compliance not only with the rules of grammar and spelling, but also with the canons of stylistics of a scientific text; justification for the choice of methodological support, its compliance with the objectives of the study; the use of modern methods of processing data from empirical research, the correctness of statistical and qualitative analysis of the data obtained; mastery of basic methods and means of obtaining, storing, and processing information; correctness of the author's generalizations, content and validity of conclusions. Independent work (work in the information knowledge base) Independent work of undergraduates is an important component of the professional training of specialists and includes the following. Studying educational material, preparing notes, a logical diagram of the material being studied, learning a glossary (dictionary of terms), studying algorithms for solving typical module problems. The lesson is conducted as part of the student’s independent work. Working with an electronic educational resource, re-reinforcing module material using educational software products, lecture slides, tutoring slides. The lesson takes place during hours free from the main class schedule, on the student’s personal computer.

12 Interim certification To monitor current performance and intermediate certification, a rating and information-measuring system for assessing knowledge is used. Tests, examinations and control activities that are carried out in disciplines, in the form provided for by the curriculum, upon completion of their study. The lesson is in-class, conducted in the form of written work or using assessment tools and information test systems. Methodological materials for teachers and students are designed in the form of separate methodological recommendations and instructions regulating the conduct of training sessions, as well as the content and procedure for certification. The listed teaching materials are presented as an appendix to the main educational program. Developers: Glazyrina I.B. (Full name) Reviewers: Belyanina N.V. (Full name) Ph.D. ped. Sciences, Associate Professor (academic title) cand. tech. Sciences, Associate Professor, Head. Department of “Informatics” NACHO HPE SGA (position held) (place of work)


COMPUTER TECHNOLOGIES IN SCIENCE AND EDUCATION 1 Purpose and objectives of the discipline The purpose of the discipline is to consider a wide range of special issues in the formation of trends in the use of computing and

COMPUTER TECHNOLOGIES IN SCIENCE AND EDUCATION 1 Purpose and objectives of the discipline The purpose of the discipline is to consider a wide range of special issues in the formation of trends in the use of computing and

ECONOMICS OF EDUCATION AND FINANCIAL MANAGEMENT OF AN EDUCATIONAL INSTITUTION 1 Purpose and objectives of the discipline The purpose of the discipline is to develop knowledge among undergraduates on issues of economics and its place in the national economy

INFORMATION RESOURCES OF ORGANIZATIONS AND ENTERPRISES 1 Goals and objectives of the discipline Goals of the discipline Students obtain knowledge about the information resources of organizations and enterprises, conditions of access to information

MANAGEMENT IN THE SOCIAL SPHERE 1 Purpose and objectives of the discipline The purpose of the discipline is to form among undergraduates a sustainable system of knowledge, skills and abilities necessary for management in the social sphere. Tasks

REGIONAL ECONOMY 1 Purpose and objectives of the discipline The purpose of the discipline “Regional Economics” is to develop master’s students’ comprehensive theoretical knowledge of regional economics and practical skills

MODERN PROBLEMS OF CHILD PSYCHOLOGY 1 Purpose and objectives of the discipline The purpose of the discipline “Modern problems of child psychology” is to familiarize undergraduates with the current state of the most pressing issues

MATHEMATICAL MODELS IN CONTROL THEORY AND OPERATIONS RESEARCH 1 Goal and objectives of the discipline: The goals of the discipline are to form scientific ideas about methods for studying systems. Objectives of the discipline: study

COMPUTER TECHNOLOGIES IN SCIENCE AND EDUCATION 1 The purpose and objectives of the discipline The purpose of the discipline is to master the fundamental concepts of information, methods of obtaining it, storing it, processing and transmitting it, constructing

INFORMATION AND ANALYTICAL TECHNOLOGIES OF STATE AND MUNICIPAL MANAGEMENT 1. Purpose and objectives of the discipline: The purpose of the discipline is to give undergraduates knowledge in the field of development, operation and use

DESIGN AND MANAGEMENT OF EDUCATIONAL INFORMATION SYSTEMS 1 Purpose and objectives of the discipline The purpose of the discipline “Design and management of educational information systems” is to contribute to the formation

INFORMATION AND COMMUNICATION TECHNOLOGIES IN SCIENCE AND EDUCATION 1 Purpose and objectives of the discipline The purpose of the discipline is to promote the formation of an information culture of students, readiness to use information

INFORMATION SYSTEMS OF ELECTRONIC COMMERCE 1 The purpose and objectives of the discipline The purpose of the discipline is to form among undergraduates comprehensive ideas about the basics of the organization and functioning of modern

ORGANIZATION OF RESEARCH AND PEDAGOGICAL ACTIVITIES IN THE FIELD OF PERSONNEL MANAGEMENT 1. The purpose and objectives of the discipline The purpose of the discipline “Organization of research and teaching activities

SOFTWARE DEVELOPMENT TECHNOLOGY 1 Purpose and objectives of the discipline The purpose of the discipline is the acquisition of knowledge, development of professional skills necessary in the field of development (software), familiarization

WORLD INFORMATION RESOURCES 1 Goals and objectives of the discipline: Goals of the discipline Students obtain knowledge about sources, channels and consumers, conditions of access to information resources; development of practical

ORGANIZATION OF PRODUCTION 1 Purpose and objectives of the discipline: The purpose of the discipline “Organization of Production” is theoretical knowledge on the organization of production of all organizational and legal forms, their structural and functional

MODERN PROBLEMS OF INFORMATION SCIENCE AND COMPUTER ENGINEERING 1 Purpose and objectives of the discipline The purpose of the discipline is to consider modern problems and a wide range of special issues in the formation of trends

CONTROL SYSTEMS 1 Purpose and objectives of the discipline The purpose of the discipline “Control Systems” is to ensure the master’s student’s knowledge and understanding of the essence, role, function, method of control and audit as a control tool in

TECHNOLOGIES OF MANAGEMENT OF PERSONNEL DEVELOPMENT 1 Purpose and objectives of the discipline The purpose of the discipline “Technologies of management of personnel development” is the formation of comprehensive theoretical knowledge and practical knowledge among undergraduates

INFORMATION SYSTEMS FOR ECONOMIC MONITORING AT THE MACRO LEVEL 1 Purpose and objectives of the discipline The purpose of the discipline “Information systems for economic monitoring at the macro level” is to study the problems of increasing

MODERN EDUCATIONAL TECHNOLOGIES 1 The purpose and objectives of the discipline The purpose of the discipline “Modern educational technologies” is to form in students a system of knowledge, skills and abilities in the field

SYSTEMS OF MOTIVATION AND STIMULATION OF LABOR ACTIVITY 1 Purpose and objectives of the discipline The goal of the discipline “Systems of motivation and stimulation of labor activity” is the formation of comprehensive theoretical

PSYCHOLOGY OF MANAGEMENT DECISIONS 1 Purpose and objectives of the discipline The purpose of the discipline is to train masters in psychological technologies of analysis, assessment and forecasting of making effective management

MANAGEMENT OF AN EDUCATIONAL INSTITUTION FOR ADDITIONAL EDUCATION OF CHILDREN 1 Purpose and objectives of the discipline The purpose of the discipline “Management of an educational institution for additional education of children” formation

MODERN INFORMATION TECHNOLOGIES AND NETWORKS 1 Goals and objectives of the discipline: Goals To develop students' theoretical knowledge and practical skills in the use of modern information technologies (IT).

MANAGEMENT CONSULTING 1 Purpose and objectives of the discipline: The purpose of the discipline is to familiarize undergraduates with the principles of management consulting in an enterprise, prepare for independent decisions

PEDAGOGY OF HIGHER SCHOOL 1 The purpose and objectives of the discipline The purpose of the discipline is for undergraduates to master the theoretical and practical foundations of higher education pedagogy, in preparation for research,

EDUCATION QUALITY MANAGEMENT 1 Purpose and objectives of the discipline The purpose of the discipline “Education Quality Management” is to promote the formation of a system of knowledge about education quality management among students

GOALS SETTING AND PLANNING IN EDUCATION 1 The purpose and objectives of the discipline The purpose of the discipline “Goal Setting and Planning” is to develop in students a system of knowledge, skills and abilities in the field of theory and methodology

PSYCHOLOGICAL FEATURES OF THE INFORMATION SOCIETY 1. The purpose and objectives of the discipline The purpose of the discipline is the formation and systematization of students' knowledge of the theory and practice of using information technology

METHODOLOGY FOR TEACHING ECONOMICS IN HIGHER SCHOOL 1 The purpose and objectives of the discipline The purpose of the discipline “Methodology for teaching economics in higher education” is to acquire knowledge about the patterns, ways and means of didactic

FUNDAMENTALS OF THE WORLD ECONOMY 1 The purpose and objectives of the discipline The purpose of the discipline is to ensure that the master’s student knows and understands the main stages of the formation of the world economy and the trends of its development in the modern

MODERN PROBLEMS OF THE THEORY AND PRACTICE OF MANAGEMENT IN EDUCATION 1 The purpose and objectives of the discipline The purpose of the discipline “Modern problems of the theory and practice of management in education” is to form among students

INTELLIGENT SYSTEMS 1 The purpose and objectives of the discipline The purpose of the discipline is to become familiar with the basic concepts, methods and practical examples of building intelligent systems based on the study of basic

ORGANIZATION THEORY AND ORGANIZATIONAL DESIGN 1. The purpose and objectives of the discipline The purpose of the discipline: to form a system of scientific knowledge in the field of fundamental principles of organization, order, to study patterns

PSYCHOLOGY AND PEDAGOGY IN HIGHER SCHOOL 1 The purpose and objectives of the discipline The purpose of the discipline is for undergraduates to master the knowledge of key problems of psychology and pedagogy of higher education, to develop in them modern

LEADERSHIP IN EDUCATION 1 Purpose and objectives of the discipline The purpose of the discipline “Leadership in Education” is to develop in master’s students a system of knowledge, skills and abilities in the field of theory and practice of leadership

DISTRIBUTED INFORMATION SYSTEMS 1 The purpose and objectives of the discipline The purpose of the discipline is to form students’ ideas about the basics of design and implementation of distributed information and intellectual

CORPORATE INFORMATION SYSTEMS 1 Goals and objectives of the discipline: Goal of the discipline: To familiarize students with the evolution of tools to support management decision making and information

HR CONSULTING AND AUDIT 1 Goals and objectives of the discipline: The purpose of the discipline “HR Consulting and Audit” is to develop comprehensive theoretical knowledge and practical skills in consulting among undergraduates

AUTOMATIC INFORMATION PROCESSING 1 Goals and objectives of the discipline: To provide basic knowledge and skills in using automatic information processing systems in future professional activities. Train

LEGAL INFORMATICS 1. The purpose and objectives of the discipline The purpose of the discipline is to develop in master's students a system of theoretical knowledge and practical skills in the field of legal informatics necessary for competent

MODERN TECHNOLOGIES OF FAMILY EDUCATION 1 Purpose and objectives of the discipline The purpose of the discipline “Modern technologies of family education” is the formation of ideas about the specifics of family education. Tasks

PSYCHOLOGICAL SUPPORT OF ORGANIZATIONAL DEVELOPMENT 1 Goals and objectives of the discipline: Goal The program of the academic discipline “Psychological organizational development” sets out applied problems in a concise form

COMPUTER SCIENCE 1 Goals and objectives of the discipline The goal of studying the discipline is to promote the development of the student’s professional competence in the field of political science through the formation of a holistic understanding of the role

METHODOLOGY, METHODS AND ORGANIZATION OF SOCIAL PROTECTION 1 The purpose and objectives of the discipline The purpose of the discipline is to develop knowledge about the methodology of social work, its essence, content, the main stages of its formation

ECONOMIC ASPECTS OF MANAGEMENT ACTIVITY 1 The purpose and objectives of the discipline The purpose of the discipline is to consider economic problems and tasks facing the head of the company, in developing an understanding

REAL AND FINANCIAL INVESTMENTS 1 Purpose and objectives of the discipline The purpose of the discipline “Real and financial investments” is to master the main directions of investment policy of commercial organizations and the state

LEGAL FOUNDATIONS OF EDUCATIONAL ACTIVITY 1 Purpose and objectives of the discipline The purpose of the discipline is to give undergraduates a complex of fundamental knowledge in the field of legal regulation of educational relations and to form

CONFLICTS IN ORGANIZATIONS: DIAGNOSTICS, PREVENTION AND RESOLUTION 1 The purpose and objectives of the discipline The purpose of the discipline is to develop competence in master's students in the field of management and resolution of conflicts in modern times.

RESEARCH METHODS IN MANAGEMENT 1 Purpose and objectives of the discipline The purpose of the discipline “Research Methods in Management” is to develop master’s students’ comprehensive theoretical and practical knowledge, practical

MANAGEMENT DECISION MAKING 1 The purpose and objectives of the discipline The purpose of the discipline is to develop in the master’s student the ability to use modern techniques and methods for developing and making management decisions in conditions

SYSTEMS THEORY AND SYSTEM ANALYSIS 1 Purpose and objectives of the discipline The purpose of the discipline “Systems Theory and System Analysis” is to provide undergraduates with theoretical knowledge and practical skills in applying systemic

SOCIAL QUALIMETRY, QUALITY ASSESSMENT AND STANDARDIZATION OF SOCIAL SERVICES 1 Goals and objectives of the discipline: Goal: Formation in students of a sustainable system of knowledge, skills and abilities in the field of social qualimetry,

FUNDAMENTALS OF AUTOMATED INFORMATION SYSTEMS 1 Goals and objectives of the discipline: The purpose of the discipline Fundamentals of Automated Information Systems is to study and assimilate by students basic knowledge in the field

SOURCES OF CONSTITUTIONAL AND MUNICIPAL LAW 1 Purpose and objectives of the discipline The purpose of the discipline is to form among undergraduates a holistic understanding of the system of sources of constitutional and municipal law

INFORMATION SYSTEMS IN ECONOMY 1 Goals and objectives of the discipline: Goal Students study basic technological approaches, organizational provisions and techniques in the field of design and operation

INFORMATION TECHNOLOGIES IN PSYCHOLOGY 1 Goals and objectives of the discipline The purpose of studying the discipline is to promote the development of professional competence of the student in the field of psychology through the formation of a holistic

INNOVATION PROCESSES IN EDUCATION 1 The purpose and objectives of the discipline The purpose of the discipline “Innovative processes in education” is to contribute to the improvement of pedagogical and managerial

MODERN INFORMATION TECHNOLOGIES AND NETWORKS 1 Goals and objectives of the discipline: The purpose of the discipline is to familiarize students with the basics of modern information technologies, with trends in their development, acquisition

PSYCHOLOGY OF WILL 1 Purpose and objectives of the discipline The purpose of the discipline is to improve the understanding of undergraduates in the field of volitional prerequisites for personal development with the subsequent specialization of this knowledge

INFORMATION TECHNOLOGY IN PROFESSIONAL ACTIVITIES 1 Goals and objectives of the discipline: Goals Students study basic technological approaches, organizational provisions and techniques in the field of design

MODERN PROBLEMS OF PERSONNEL MANAGEMENT 1 Purpose and objectives of the discipline The purpose of the discipline is to provide the foundations of knowledge and skills for the formation and development of personnel management systems in organizations, planning

PSYCHOLOGY OF PROFESSIONAL TRAINING OF PERSONNEL 1. Purpose and objectives of the discipline The purpose of the discipline “Psychology of vocational training of personnel” is to master the content of methodological approaches to analysis by students

INFORMATION AND COMMUNICATION TECHNOLOGIES IN EDUCATION 1 Goals and objectives of the discipline: The purpose of studying the discipline is for students to master knowledge, skills and abilities in the field of information and communication

SOCIOLOGY OF POLITICAL PROCESSES 1 Purpose and objectives of the discipline The purpose of the discipline is to consider the phenomenon of the political process in its connection with the social evolution of industrial society and the reflection of this evolution

INFORMATION LAW 1 Purpose and objectives of the discipline The purpose of the discipline is to develop scientific ideas among undergraduates about the basic principles of information activities of the state, legal regulation

http://site/ru/info/study/evm

Computer technologies in science and production

Computer technologies in science and production A. N. Vtyurin, A. S. Krylov. Scientific and educational course http://site/ru/info/study/evm/csp http://site/@@site-logo/logo.png

The simplicity and accessibility of modern computers, on the one hand, and the increasing complexity of physical experiments, on the other, have led to the fact that computers are increasingly used in modern experimental physics. In this regard, modern experimental physics requires knowledge not only of numerical methods and programming languages, but also of architecture, design elements of control computers, principles of their organization, and existing methods for integrating computers with physical devices. This book introduces the reader to
the fundamentals of computer architecture used to control experimental installations, the design and operating principles of the most common interface equipment, algorithms for experiment control and operational processing of experimental data. The text is accompanied by control questions devoted to the principles of organizing application software and the implementation of basic algorithms for the operational processing of experimental results, as well as examples of the practical implementation of the presented material for controlling individual interface modules and working on computer-controlled installations.

Computer in physical experiment Vtyurin A. N., Ageev A. G., Krylov A. S. Textbook http://site/ru/info/study/evm/ecm http://site/@@site-logo/logo.png

Vtyurin A. N., Ageev A. G., Krylov A. S. Textbook

The simplicity and accessibility of modern computers, on the one hand, and the increasing complexity of physical experiments, on the other, have led to the fact that computers are increasingly used in modern experimental physics. In this regard, modern experimental physics requires knowledge not only of numerical methods and programming languages, but also of architecture, design elements of control computers, principles of their organization, and existing methods for integrating computers with physical devices. This book introduces the reader to the basics of computer architecture used to control experimental installations, the design and operating principles of the most common interface equipment, experiment control algorithms and operational processing of experimental data. The text is accompanied by control questions devoted to the principles of organizing application software and the implementation of basic algorithms for the operational processing of experimental results, as well as examples of the practical implementation of the presented material for controlling individual interface modules and working on computer-controlled installations.
The book is addressed to undergraduate and graduate students of physics and engineering physics faculties of universities.