HND Maths for computing, Essays (high school) of Computer science

LO1 Examine set theory and functions applicable to software engineering LO2 Analyze mathematical structures of objects using graph theory LO3 Investigate solutions to problem situations using the application of Boolean algebra LO4 Explore applicable concepts within abstract algebra.

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Higher Nationals
Internal verification of assessment decisions – BTEC (RQF)
INTERNAL VERIFICATION – ASSESSMENT DECISIONS
Programme title
BTEC Higher National Diploma in Computing
Assessor
Internal Verifier
Unit(s)
Unit 18 : Discrete Mathematics
Assignment title
Discrete mathematics in software engineering concepts
Student’s name
S.M Nipuna Madhuranga Samarakoon
List which assessment
criteria the Assessor
has
awarded.
Pass
Merit Distinction
INTERNAL VERIFIER CHECKLIST
Do the assessment criteria awarded
match those shown in the
assignment
brief?
Y/N
Is the Pass/Merit/Distinction grade awarded
justified
by the assessor’s comments on the
student work? Y/N
Has the work been assessed
accurately? Y/N
Is the feedback to the student:
Give details:
Constructive?
Linked to relevant assessment
criteria?
Identifying opportunities for
improved performance?
Agreeing actions?
Y/N
Y/N
Y/N
Y/N
Does the assessment decision need
amending? Y/N
Assessor signature
Date
Internal Verifier signature Date
Programme Leader signature (if
required)
Date
S.M Nipuna Madhuranga Samarakoon HND Batch 29 Discrete Mathematics
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Higher Nationals

Internal verification of assessment decisions – BTEC (RQF)

INTERNAL VERIFICATION – ASSESSMENT DECISIONS Programme title BTEC Higher National Diploma in Computing Assessor Internal Verifier Unit(s) Unit 18 : Discrete Mathematics Assignment title Discrete mathematics in software engineering concepts Student’s name S.M Nipuna Madhuranga Samarakoon List which assessment criteria the Assessor has awarded. Pass Merit Distinction INTERNAL VERIFIER CHECKLIST Do the assessment criteria awarded match those shown in the assignment brief? Y/N Is the Pass/Merit/Distinction grade awarded justified by the assessor’s comments on the student work? Y/N Has the work been assessed accurately? Y/N Is the feedback to the student: Give details:

  • Constructive?
  • Linked to relevant assessment criteria?
  • Identifying opportunities for improved performance?
  • Agreeing actions? Y/N Y/N Y/N Y/N Does the assessment decision need amending? Y/N Assessor signature Date Internal Verifier signature Date Programme Leader signature (if required) Date

Confirm action completed Remedial action taken Give details: Assessor signature Date Internal Verifier signature Date Programme Leader signature (if required) Date

Higher Nationals - Summative Assignment Feedback Form

Pearson Higher Nationals in Computing Unit 18: Discrete Mathematics

General Guidelines

  1. A Cover page or title page – You should always attach a title page to your assignment. Use previous page as your cover sheet and make sure all the details are accurately filled.
  2. Attach this brief as the first section of your assignment.
  3. All the assignments should be prepared using a word processing software.
  4. All the assignments should be printed on A4 sized papers. Use single side printing.
  5. Allow 1” for top, bottom, right margins and 1.25” for the left margin of each page. Word Processing Rules
  6. The font size should be 12 point, and should be in the style of Time New Roman.
  7. Use 1.5-line spacing. Left justify all paragraphs.
  8. Ensure that all the headings are consistent in terms of the font size and font style.
  9. Use footer function in the word processor to insert Your Name, Subject, Assignment No, and Page Number on each pag e. This is useful if individual sheets become detached for any reason.
  10. Use word processing application spell check and grammar check function to help editing your assignment. Important Points:
  11. Carefully check the hand in date and the instructions given in the assignment. Late submissions will not be accepted.
  12. Ensure that you give yourself enough time to complete the assignment by the due date.
  13. Excuses of any nature will not be accepted for failure to hand in the work on time.
  14. You must take responsibility for managing your own time effectively.
  15. If you are unable to hand in your assignment on time and have valid reasons such as illness, you may apply (in writing) for an extension.
  16. Failure to achieve at least PASS criteria will result in a REFERRAL grade.
  17. Non-submission of work without valid reasons will lead to an automatic RE FERRAL. You will then be asked to complete an alternative assignment.
  18. If you use other people’s work or ideas in your assignment, reference them properly using HARVARD referencing system to avoid plagiarism. You have to provide both in-text citation and a reference list.
  19. If you are proven to be guilty of plagiarism or any academic misconduct, your grade could be reduced to A REFERRAL or at worst you could be expelled from the course

Assignment Brief

Student Name /ID Number S.M Nipuna Madhuranga Samarakoon Unit Number and Title Unit 18: Discrete Mathematics Academic Year Unit Tutor Assignment Title Discrete mathematics in Computing Issue Date Submission Date IV Name & Date Submission Format: This assignment should be submitted at the end of the module, on the week stated at the front of this brief. The assignment can either be word-processed or completed in legible handwriting. If the tasks are completed over multiple pages, ensure that your name and student number are present on each page. Unit Learning Outcomes: LO1 Examine set theory and functions applicable to software engineering LO2 Analyze mathematical structures of objects using graph theory

LO3 Investigate solutions to problem situations using the application of Boolean algebra LO4 Explore applicable concepts within abstract algebra. Assignment Brief and Guidance:

Activity 01

Part 1

1. Let A and B be two non-empty finite sets. If cardinalities of the sets A, B, and AB^ are respectively 72, 28 and 13, then find the cardinality of the set AB^. 2. If n( AB^ )=45, n( AB^ )=110 and n( AB^ )=15, then find n(B). 3. If n(A)=33, n(B)=36 and n(C)=28, find n( ABC^ ). Part 2 1. Write the multisets of prime factors for the given numbers. I. 160 II. 120 III. 250

  1. Write the multiplicities of each element of multisets in part 2(1-I, ii,iii) separately.
  2. Find the cardinalities of each multiset in part 2-1. Part 3
  3. Determine whether the following functions are invertible or not. If it is invertible, then find the rule

Part 3

  1. Check whether the following graphs have a Eulerian and/or Hamiltonian circuit. I. II.
III.

Part 4

  1. Construct a proof for the five color theorem for every planar graph.
  2. Discuss how efficiently Graph Theory can be used in a route planning project for a vacation trip from Colombo to Trincomalee by considering most of the practical situations (such as mileage of the vehicle, etc.) as much as you can. Essentially consider the two fold, - Routes with the shortest distance (Quick route travelling by own vehicle) - Route with the lowest cost
  3. Determine the minimum number of separate racks needed to store the chemicals given in the table (1st^ column) by considering their incompatibility using graph coloring technique. Clearly state you steps and graphs used. Chemical Incompatible with
  1. Consider the K-Maps given. For each K- Map i. Write the appropriate standard form (SOP/POS) of Boolean expression. ii. Draw the circuit using AND, NOT and OR gates. iii. Draw the circuit only by using i. NAND gates if the standard form obtained in part (i) is SOP. ii. NOR gates if the standard form obtained in pat (i) is POS. (a) AB/C 0 1 00 0 0 01 0 1 10 1 0 11 0 1 (b) AB/CD 00 01 10 11 00 1 0 0 1 01 0 1 0 1 10 1 1 1 1 11 1 1 0 1 (c) AB/C 0 1 00 1 0 01 1 1 10 0 1 11 1 0

Grading Rubric Grading Criteria Achieved Feedback LO1 : Examine set theory and functions applicable to software engineering P1 Perform algebraic set operations in a formulated mathematical problem. P2 Determine the cardinality of a given bag (multiset). M1 Determine the inverse of a function using appropriate mathematical technique. D1 Formulate corresponding proof principles to prove properties about defined sets. LO2 Analyse mathematical structures of objects using graph theory. P3 Model contextualized problems using trees, both quantitatively and qualitatively. P4 Use Dijkstra’s algorithm to find a shortest path spanning tree in a graph. M2 Assess whether an Eularian and Hamiltonian circuit exists in an undirected graph. D2 Construct a proof of the Five colour theorem. LO3 Investigate solutions to problem situations using the application of Boolean algebra.

P5 Diagram a binary problem in the application of Boolean Algebra. P6 Produce a truth table and its corresponding Boolean equation from an applicable scenario. M3 Simplify a Boolean equation using algebraic methods. D3 Design a complex system using logic gates. LO4 Explore applicable concepts within abstract algebra. P7 Describe the distinguishing characteristics of different binary operations that are performed on the same set. P8 Determine the order of a group and the order of a subgroup in given examples. M4 Validate whether a given set with a binary operation is indeed a group. D4 Prepare a presentation that explains an application of group theory relevant to your course of study.

Activity 01 Part 1

1. Let A and B be two non-empty finite sets. If cardinalities of the sets A, B, and AB (^) are 72, 28 and 13 respectively, find the cardinality of the set AB (^).

n( A  B ) = n(A) + n(B) - n( A  B )

n( A  B ) = 72 + 28 - 13

n( A  B ) = 87

2. If n( AB^ )=45, n( AB^ )=110 and n( AB^ )=15, then find n(B).

n( A  B ) =

n( A  B ) =

n( A  B ) =

n( A  B ) = n( A  B ) + n( B  A ) + n( A  B )

110 = 45 + n( BA ) + 15 110 = 60 + n( BA ) n( BA ) = 50

n(B) = n( B  A ) + n( A  B )

n(B) = 50 + 15 n(B) = 65

P( A ∪ B^ ¿^ C^ )=?

P( A ∪ B^ ¿^ C^ )=P(A) + P(B)+ P(C) - P( A ∩ B^ ) - P( A ∩ C^ )-P( B ∩ C^ )

  • Activity 01.................................................................................................
    • Part 1....................................................................................................................................
    • Part 2....................................................................................................................................
    • Part 3....................................................................................................................................
    • Part 4....................................................................................................................................
  • Activity 02.................................................................................................
    • Part 1....................................................................................................................................
    • Part 2....................................................................................................................................
      • 2...................................................................................................................................................
      • Part 3...........................................................................................................................................
    • Part 4....................................................................................................................................
  • Activity 03.................................................................................................
    • Part 1....................................................................................................................................
    • Part 2....................................................................................................................................
    • Part 3....................................................................................................................................
    • Part 2....................................................................................................................................
      • 1...................................................................................................................................................
    • Part 4....................................................................................................................................
  • Activity 04.................................................................................................
    • Part 1....................................................................................................................................
      • 2...................................................................................................................................................
    • Part 2....................................................................................................................................
      • 1...................................................................................................................................................
      • 2...................................................................................................................................................
    • Part 3....................................................................................................................................
    • Part 4....................................................................................................................................
  • P(A)=
  • P(B)=
  • P(C)=
  • P(A)= 10+ a + 5+b =
  • 15+a+b =
  • a + b =
  • 15+a+5+c =
  • 20+ a+ c =
  • a + c =
  • 13+ 5+b+c =
  • b + c= 28 –
  • b + c =
  • a + b =
  • b + c=
  • b + c =
  • 1 +
  • a + b – b-c =
  • a - c =8
  • 2 +
  • 2a =
  • a=
  • b =
  • c =
  • P( A ∪ B ¿ C ) = 33+ 36+28- 17-11-
    • = 97 –