Reference bioassay function - Revision history

Karen Clement at 13:51, 13 September 2019

2019-09-13T13:51:46Z

Intern at 18:10, 6 June 2019

2019-06-06T18:10:19Z

Intern at 18:09, 6 June 2019

2019-06-06T18:09:55Z

Intern: Created page with "A set of tabulated values $m_{(t)}$ predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or t..."

2019-06-06T18:09:14Z

Created page with "A set of tabulated values <math>m_{(t)}</math> predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or t..."

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A set of tabulated values <math>m_{(t)}</math> predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or the activity excreted in urine or faeces (‘excretion function’) following an acute intake at time <math>t_0</math.. A retention function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in the body, organ, or tissue at a time t after the intake, whereas an excretion function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in a 24-h excreta sample at a time t after the intake. (Adapted from[[ICRP Publication 130]], 2015)

''[[ICRP Glossary]] entry - May 2019''

← Older revision		Revision as of 13:51, 13 September 2019
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−	A set of tabulated values <math>m_{(t)}</math> predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or the activity excreted in urine or faeces (‘excretion function’) following an acute intake at time <math>t_0</math>. A retention function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in the body, organ, or tissue at a time t after the intake, whereas an excretion function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in a 24-h excreta sample at a time t after the intake. (Adapted from[[ICRP Publication 130]], 2015)	+	A set of tabulated values <math>m_{(t)}</math> predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or the activity excreted in urine or faeces (‘excretion function’) following an acute intake at time <math>t_0</math>. A retention function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in the body, organ, or tissue at a time t after the intake, whereas an excretion function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in a 24-h excreta sample at a time t after the intake. (Adapted from [[ICRP Publication 130]], 2015)

		+	''ICRP Glossary entry - May 2019''

−	''[[ICRP Glossary]] ~~entry - May 2019~~''	+
		+	'''Return to [[ICRP Glossary\|Glossary]]'''

← Older revision		Revision as of 18:10, 6 June 2019
Line 1:		Line 1:
−	A set of tabulated values <math>m_{(t)}</math> predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or the activity excreted in urine or faeces (‘excretion function’) following an acute intake at time <math>t_0</math>.. A retention function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in the body, organ, or tissue at a time t after the intake, whereas an excretion function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in a 24-h excreta sample at a time t after the intake. (Adapted from[[ICRP Publication 130]], 2015)	+	A set of tabulated values <math>m_{(t)}</math> predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or the activity excreted in urine or faeces (‘excretion function’) following an acute intake at time <math>t_0</math>. A retention function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in the body, organ, or tissue at a time t after the intake, whereas an excretion function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in a 24-h excreta sample at a time t after the intake. (Adapted from[[ICRP Publication 130]], 2015)


	''[[ICRP Glossary]] entry - May 2019''		''[[ICRP Glossary]] entry - May 2019''

← Older revision		Revision as of 18:09, 6 June 2019
Line 1:		Line 1:
−	A set of tabulated values <math>m_{(t)}</math> predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or the activity excreted in urine or faeces (‘excretion function’) following an acute intake at time <math>t_0</math.. A retention function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in the body, organ, or tissue at a time t after the intake, whereas an excretion function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in a 24-h excreta sample at a time t after the intake. (Adapted from[[ICRP Publication 130]], 2015)	+	A set of tabulated values <math>m_{(t)}</math> predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or the activity excreted in urine or faeces (‘excretion function’) following an acute intake at time <math>t_0</math>.. A retention function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in the body, organ, or tissue at a time t after the intake, whereas an excretion function <math>m_{(t)}</math> represents the predicted activity of a radionuclide in a 24-h excreta sample at a time t after the intake. (Adapted from[[ICRP Publication 130]], 2015)


	''[[ICRP Glossary]] entry - May 2019''		''[[ICRP Glossary]] entry - May 2019''

Reference bioassay function - Revision history

Karen Clement at 13:51, 13 September 2019

Intern at 18:10, 6 June 2019

Intern at 18:09, 6 June 2019

Intern: Created page with "A set of tabulated values m_{(t)} predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or t..."

Intern: Created page with "A set of tabulated values $m_{(t)}$ predicted by a reference biokinetic model describing the time course of the activity in the body (‘retention function’) or t..."