Generator sets and the kernel formation (Ex)

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'''Exercise 1:'''
'''Exercise 1:'''
Let $\{x_1, x_2, \dots, x_k\}$ and $\{y_1, y_2, \dots, y_l\}$ be two sets of $\mathbb{Z}[\pi_1(X)]$-module generators for the kernel module $K_n(M)$. These are related by a sequence of elementaray operations. (See {{citeD|Wall1999|Chapter 6}}, and / or {{citeD|Ranicki2002|Chapter 12}})
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Let $\{x_1, x_2, \dots, x_k\}$ and $\{y_1, y_2, \dots, y_l\}$ be two sets of $\mathbb{Z}[\pi_1(X)]$-module generators for the kernel module $K_n(M)$. These are related by a sequence of elementaray operations. (See {{citeD|Wall1999|Chapter 6}}, and/or {{citeD|Ranicki2002|Chapter 12}})
# What is the effect on the kernel formation of $(f, b)$ of adjoining or deleting a zero?
# What is the effect on the kernel formation of $(f, b)$ of adjoining or deleting a zero?
# What is the effect of permuting elements?
# What is the effect of permuting elements?
# and of adding a new element which is a linear of combination of the others?
# and of adding a new element which is a linear of combination of the others?
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== References ==
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[[Category:Exercises]]
[[Category:Exercises]]
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[[Category:Exercises without solution]]

Revision as of 14:47, 1 April 2012

Exercise 1: Let \{x_1, x_2, \dots, x_k\} and \{y_1, y_2, \dots, y_l\} be two sets of \mathbb{Z}[\pi_1(X)]-module generators for the kernel module K_n(M). These are related by a sequence of elementaray operations. (See [Wall1999, Chapter 6], and/or [Ranicki2002, Chapter 12])

  1. What is the effect on the kernel formation of (f, b) of adjoining or deleting a zero?
  2. What is the effect of permuting elements?
  3. and of adding a new element which is a linear of combination of the others?
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