SLP.xlsx

	A	B	C	D	E	G	H	I	J	L	M	N	O	P	Q	R	S	U	V	W	X	Y	Z
1	Choose your Solvent:	water					A (Solvent)	B (Specific Heat)	C (Density)	Description	Uncertainty value (%)	Probability distribution	Divisor	Sensitivity factor	Standard uncertainty (%)	Note		Uncertainty of MF Amplitude
2	specific heat	C=	4,19	J g-1 Κ-1			Acetone	2,15	784,6	Parameters of the setup influencing the measurand quantity (SLP)								Description	Uncertainty value (%)	Probability distribution	Divisor	Sensitivity factor	Standard uncertainty (%)
3	Fill in the MNPs Concentration:	cn=	1	g/l			Ethanol (0oC)	2,3	785,1	Magnetic Field Amplitude	0,24	N	1,00	2,00	0,49	SPM NPs		Magnetic Field Amplitude	0,42	R	1,73	1,00	0,24
4	density of solvent	d=	1000	g/l			Ethanol (40oC)	2,72	785,1	Frequency	0,25	N	1,00	1,00	0,25	SPM NPs		Field Homogeneity	0,03	R	1,73	1,00	0,02
5	Fill in the Solution Volume:	V=	0,001	l			toluene	1,72	867	Solution concentration	1,00	N	1,00	0,00	0,00			Combined standard uncertainty		RSS			0,24
6	Ferrofluid mass	mf=dV	1	g			methanol	2,51	786,5	Solution volume	5,00	R	1,73	1,00	2,89	Due to Physics (agglomeration?)
7	nanoparticle mass	mFe=cnV	0,001	g			hexane	2,26	654,8	Measured values used in the calculation of the SLP
8	Fill in the Heating Slope	ΔΤ/Δt=	2,50E-02	K/s			water	4,19	1000	Fiber position uncertainty (vertical)	6,67	R	1,73	0,76	2,93
9	Fill in the ΔΘ measured:	ΔΘ=	30	οC						Fiber position uncertainty (eccentric)	6,67	R	1,73	0,10	0,39
10	Fill in the Frequency	f=	400	kHz						Mass density of the solution*	0,10	Ν	1,00	1,00	0,10
11	Fill in the MF Amplitude	H=	23,9	KA/m						Solution concentration	10,00	R	1,73	1,00	5,78
12	Fill in the MNPs Diameter	D=	80	nm						Specific heat capacity	0,03	N	1,00	1,00	0,03
13										Temperature	0,03	R	1,73	1,00	0,02
14	Specific Loss Power	SLP=	104,75		W/g					Time	0,04	R	1,73	1,00	0,02
15	Specific Loss Power	SLP=	±	14,98	W/g	SLP Error				Combined standard uncertainty		RSS			7,13
16										Expanded uncertainty (95% confidence interval)					14,26
17	Specific Loss Energy	WSLP=	2,62E-04	J/g
18	Specific Loss Energy	WSLP=	2,62E-07	J/kg
19										Description	Uncertainty value (%)	Probability distribution	Divisor	Sensitivity factor	Standard uncertainty (%)	Note
20	Intrinsic Loss Power	ILP=	0,46	nH m2/kg						Parameters of the setup influencing the measurand quantity (SLP)
21	Intrinsic Loss Power	ILP=	0,46	nH m2/kg						Magnetic Field Amplitude	0,24	N	1,00	3,00	0,73	FM NPs
22										Frequency	0,25	N	1,00	1,00	0,25	FM NPs
23										Solution concentration	1,00	N	1,00	0,00	0,00
24	1st Temperature	Τ1=		C						Solution volume	5,00	R	1,73	1,00	2,89	Due to Physics (agglomeration?)
25	1st time	t1=		s						Measured values used in the calculation of the SLP
26	2nd Temperature	Τ2=		C						Fiber position uncertainty (vertical)	6,67	R	1,73	0,76	2,93
27	2nd time	t2=		s						Fiber position uncertainty (eccentric)	6,67	R	1,73	0,10	0,39
28	Slope-2 points	ΔΤ/Δt=	#DIV/0!	K/s						Mass density of the solution*	0,10	Ν	1,00	1,00	0,10
29										Solution concentration	10,00	R	1,73	1,00	5,78
30	Specific Heat of			Density at 25oC						Specific heat capacity	0,03	N	1,00	1,00	0,03
31	Acetone	2,15	J g-1 Κ-1	784,6						Temperature	0,03	R	1,73	1,00	0,02
32	Ethanol (0oC)	2,30	J g-1 Κ-1	785,1						Time	0,04	R	1,73	1,00	0,02
33	Ethanol (40oC)	2,72	J g-1 Κ-1	785,1						Combined standard uncertainty		RSS			7,15
34	toluene	1,72	J g-1 Κ-1	867						Expanded uncertainty (95% confidence interval)					14,30
35	methanol	2,51	J g-1 Κ-1	786,5
36	hexane	2,26	J g-1 Κ-1	654,8
37	water	4,19	J g-1 Κ-1	1000
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40					Given particle concentration (mg/mL)	Given Fe concentration (mg/mL)	ICP-AES measured total Fe concentration (mg/mL)	Intrinsic loss power ILP (nHm2/ kg)	SAR (W/g), H=5.66 kA/m, f=900 kHz	I (A)	H (kA/m)	H (Oe)	~ (Oe)	f (kHz)	H.f (A m-1 s-1)	f (kHz)	H.f (A m-1 s-1)
41					–	28	27,8	3,1	89,4	4,5	8	104,6	100	765	6,36E+09	210	1,75E+09
42		Kallumadil-JMMM2009			70	–	14,7	2,67	77,0	5	9	112,0	110	765	6,82E+09	210	1,87E+09
43		Particle type	Coating	Given hydrodynamic diameter (nm)	50	37,5	29,8	2,01	58,0	6	10	127,0	130	765	7,73E+09	210	2,12E+09
44		Schering Resovist	Carboxy dextran	60	200	–	125,4	1,71	49,3	7	11	142,0	140	765	8,64E+09	210	2,37E+09
45		Fluidmag-D	Starch	50	80	–	37	1,53	44,1	8	12	156,9	160	765	9,55E+09	210	2,62E+09
46		Fluidmag-D	Starch	100	50	37,5	33,7	1,41	40,7	9	14	171,9	170	765	1,05E+10	210	2,87E+09
47		Fluidmag-CMX	Carboxymethyl- dextran	200	100	50	27,8	1,31	37,8	10	15	186,8	190	765	1,14E+10	210	3,12E+09
48		Fluidmag NY-D	Starch	200	80	–	48,2	1,31	37,8
49		Fluidmag-D	Starch	200	50	5,4	5,9	3,12	90,0	12	17	216,7	220	765	1,32E+10	210	3,62E+09
50		Fluidmag-D	Starch	50	50	6	6	2,31	66,6	14	20	246,7	250	765	1,50E+10	210	4,12E+09
51		Fluidmag NC-D	Starch	200	50	23,5	22,6	0,37	10,7
52		Nanomag-D-spio	Carboxyl	100	20	11,4	8,9	0,35	10,1	16	22	276,6	280	765	1,68E+10	210	4,62E+09
53		Nanomag-D-spio	Carboxyl	20	50	25,3	25,1	0,23	6,6	18	24	306,5	300	765	1,87E+10	210	5,12E+09
54		Nanomag-D-spio	Carboxyl	250	50	32,1	28	0,17	4,9	20	27	336,4	340	765	2,05E+10	210	5,62E+09
55		BNF-01908	Carboxyl	60	50	11,8	8,1	0,16	4,6	22	29	366,3	370	765	2,23E+10	210	6,12E+09
56		Nanomag-D-spio	Carboxyl	130	50	29,7	29,5	0,15	4,3	25	33	411,2	410	765	2,50E+10	210	6,87E+09
57		BNF-01808	Carboxyl	90
58		BNF-02008	Carboxyl	400
59		BNF-01708	Carboxyl	80
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