MINIMIZATION OF LOGICAL EXPRESSIONS IN PROBLEMS OF DESIGNING COMBINATIONAL SCHEMES

Author(s):  
Ксения Владимировна Попова ◽  
Елена Николаевна Малышева

В статье рассматривается минимизация логических выражений как один из этапов решения задач, связанных с проектированием комбинационных электронных схем. Такие практико-ориентированные задачи демонстрируют межпредметные связи математики, информатики и электроники. Они являются средством развития технического мышления и политехнического воспитания школьников. This article deals with the minimization of logical expressions as one of the stages of solving problems associated with the design of combinational electronic circuits. Such practice-oriented tasks demonstrate the intersubject connections of mathematics, computer science and electronics. They are a means of developing technical thinking and polytechnic education of students.

2018 ◽  
Vol 7 (2) ◽  
pp. 85-96
Author(s):  
Grzegorz Arkit ◽  
Aleksandra Arkit ◽  
Silva Robak

Processing massive data amounts and Big Data became nowadays one of the most significant problems in computer science. The difficulties with education on this field arise, the appropriate teaching methods and tools are needed. The processing of vast amounts of data arriving quickly requires the choice and arrangement of extended hardware platforms.In the paper we will show an approach for teaching students in Big Data and also the choice and arrangement of an appropriate programming platform for Big Data laboratories. Usage of an e-learning platform Moodle, a dedicated platform for teaching, could allow the teaching staff and students an improved contact with by enhancing mutually communication possibilities. We will show the preparation of Hadoop platform tools and Big Data cluster based on Cloudera and Ambari. The both solutions together could enable to cope with the problems in education of students in the field of Big Data.


Digitized ◽  
2012 ◽  
Author(s):  
Peter J. Bentley

Since the birth of computer science, researchers have secretly thought of themselves as brain-builders. After all, our thoughts are made from billions of little electrical impulses fired by neurons. Why can’t computers be made to think in similar ways to us, using the electrical impulses in their electronic circuits? Why can’t we make intelligent computers that can perform tasks that require intelligence? We could have learning, predicting, walking, talking, seeing, speaking computers. We might also have computers that can diagnose our illnesses, drive our cars, or explore distant planets for us. But how do you make intelligence? Through logic and reasoning? Or through lessons learned in life? How do intelligent minds think about their environments and themselves? Could we ever create a conscious artificial brain? . . . Cheerful music plays in the background. The grainy colour film shows a tall, slightly gaunt American man wearing a dark suit. As he speaks, he holds up something in his right hand. ‘This is Theseus.’ The film switches to a close-up of a little white mouse in a maze, moving forwards, flicking right, left, and forwards again. ‘Theseus is an electrically controlled mouse. He has the ability to solve a certain class of problems by trial and error, and then remember the solution. In other words, he can learn from experience.’ Once again, the work of Claude Shannon was attracting the attention of the public and academics alike. When he demonstrated his amazing machine at the Eighth Cybernetics Conference it created nothing but fascination and admiration from the other scientists. Perhaps to sound a little more serious, he usually called the mouse a ‘finger’ at the scientific conference. ‘You see the finger now exploring the maze, hunting for the goal,’ says Shannon, as he demonstrates the device live at the conference. ‘When it reaches the centre of a square the machine makes a new decision as to the direction to try. If the finger hits a partition, the motors reverse, taking the finger back to the center of the square, where a new direction is chosen.


Author(s):  
R. M. Anderson ◽  
T. M. Reith ◽  
M. J. Sullivan ◽  
E. K. Brandis

Thin films of aluminum or aluminum-silicon can be used in conjunction with thin films of chromium in integrated electronic circuits. For some applications, these films exhibit undesirable reactions; in particular, intermetallic formation below 500 C must be inhibited or prevented. The Al films, being the principal current carriers in interconnective metal applications, are usually much thicker than the Cr; so one might expect Al-rich intermetallics to form when the processing temperature goes out of control. Unfortunately, the JCPDS and the literature do not contain enough data on the Al-rich phases CrAl7 and Cr2Al11, and the determination of these data was a secondary aim of this work.To define a matrix of Cr-Al diffusion couples, Cr-Al films were deposited with two sets of variables: Al or Al-Si, and broken vacuum or single pumpdown. All films were deposited on 2-1/4-inch thermally oxidized Si substrates. A 500-Å layer of Cr was deposited at 120 Å/min on substrates at room temperature, in a vacuum system that had been pumped to 2 x 10-6 Torr. Then, with or without vacuum break, a 1000-Å layer of Al or Al-Si was deposited at 35 Å/s, with the substrates still at room temperature.


1997 ◽  
Vol 42 (11) ◽  
pp. 1007-1008
Author(s):  
Rodney L. Lowman

2008 ◽  
Author(s):  
Donald D. Davis ◽  
Shannon K. Meert ◽  
Debra A. Major ◽  
Janis V. Sanchez-Hucles ◽  
Sandra J. Deloatch
Keyword(s):  

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