Other — Two-Dimensional Conductive Metal-Organic Framework Reinforced Spinterface in Organic Spin Valves

Measurement evidence

Other

Two-Dimensional Conductive Metal-Organic Framework Reinforced Spinterface in Organic Spin Valves · Song X., Jin C., Chen H. et al. · CCS Chemistry · 2023 · 208-217

5 measurement groups · 23 results

Reported values remain attached to the sample, method, conditions, extraction quality and source location that produced them.

M-H loops after field cooling and interface-control M-H loops

STO/PcNi-Cu-30C/Co/Au heterostructure · Electrode

STO/PcM-Cu-30C/Co/Au heterostructures; Figure 5d at 50 K; Figure S29 at 10 K after cooling from 300 to 10 K in 5 T.

Temperature
10; 50
Geometry
STO/PcM-Cu-30C/Co/Au heterostructure without LSMO bottom electrode
Context
Composite interface-control sample.
Measurement source
214 · Results and Discussion · Figure 5d; Figure S29
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Coercive field of STO/PcNi-Cu-30C/Co/Au~449 Oe at 50 K~Text
Approximate
214 · Results and Discussion · Figure 5d
Pure PcM-Cu MOF film magnetismPcNi-Cu, PcCu-Cu, and PcH2-Cu MOF films were non-magnetic and contribute little to device magnetism.Qualitative
Qualitative
214 · Results and Discussion · Supporting Information Figure S30

M-H loops after field cooling

STO/PcM-Cu-30C/Co/Au heterostructure series (M = Ni, Cu, H2) · Electrode

Three batches each of STO/PcNi-Cu-30C/Co/Au, STO/PcCu-Cu-30C/Co/Au, and STO/PcH2-Cu-30C/Co/Au heterostructures measured at 10 K after 5 T field cooling.

Temperature
10
Geometry
STO/PcM-Cu-30C/Co/Au heterostructure without LSMO bottom electrode
Context
Composite interface-control sample.
Measurement source
S26 · Section S4 · Figure S29
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
PcCu-Cu batch 1 exchange-bias fieldHEB = -264 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29
PcCu-Cu batch 2 exchange-bias fieldHEB = -271 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29
PcCu-Cu batch 3 exchange-bias fieldMarked as a best value within this paperHEB = -303 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29
PcH2-Cu batch 1 exchange-bias fieldHEB = -78 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29
PcH2-Cu batch 2 exchange-bias fieldHEB = -134 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29
PcH2-Cu batch 3 exchange-bias fieldHEB = -98 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29
PcNi-Cu batch 1 exchange-bias fieldHEB = -184 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29
PcNi-Cu batch 2 exchange-bias fieldHEB = -268 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29
PcNi-Cu batch 3 exchange-bias fieldHEB = -250 Oe after 5 T field coolingFigure Axis
Rounded Reported
S26 · Section S4 · Figure S29

M-H loops after field cooling and interface-control M-H loops

STO/PcM-Cu-30C/Co/Au heterostructure series (M = Ni, Cu, H2) · Electrode

STO/PcM-Cu-30C/Co/Au heterostructures measured at 10 K after cooling from 300 to 10 K in a 5 T field.

Temperature
10; 50
Geometry
STO/PcM-Cu-30C/Co/Au heterostructure without LSMO bottom electrode
Context
Composite interface-control sample.
Measurement source
214 · Results and Discussion · Figure S29
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Exchange-bias field range after field cooling-78 to -303 Oerange -78 to -303 OeText
Range
214 · Results and Discussion · Supporting Information Figure S29

Magnetic hysteresis M-H loops by SQUID-VSM

STO/LSMO/PcNi-Cu-30C/Co/Au organic spin valve · Electrode

M-H loops of LSMO film, Co film, and LSMO/PcNi-Cu-nC MOF/Co heterostructures at 50 K.

Temperature
50
Geometry
STO/LSMO/PcNi-Cu-nC/Co/Au heterostructures
Context
Composite device/heterostructure magnetic characterisation.
Measurement source
213 · MR behavior of MOFs-based devices · Figure 4c; Figures S25-S27
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Co/Au control coercive field~13 Oe~Text
Approximate
213 · MR behavior of MOFs-based devices · Supporting Information Figure S25
LSMO control coercive field~31 Oe~Text
Approximate
213 · MR behavior of MOFs-based devices · Supporting Information Figure S25
Higher coercive field range in OSV M-H loops340-423 Oerange 340-423 OeText
Range
213 · MR behavior of MOFs-based devices · Figure 4c; Figure S26
Lower coercive field range in OSV M-H loops36-55 Oerange 36-55 OeText
Range
213 · MR behavior of MOFs-based devices · Figure 4c; Figure S26
Higher HC increase with MOF thicknessincreased from 95 to 400 Oerange 95-400 OeText
Range
213 · MR behavior of MOFs-based devices · Supporting Information Figure S27

Magnetic hysteresis M-H loops by SQUID-VSM

STO/LSMO/PcM-Cu-nC/Co/Au OSV growth-cycle series (M = Ni, Cu, H2; n = 10-40) · Electrode

STO/LSMO/PcNi-Cu-nC/Co/Au heterostructures at 50 K for n = 10, 20, and 40 cycles.

Temperature
50
Geometry
STO/LSMO/PcNi-Cu-nC/Co/Au heterostructures
Context
Composite device/heterostructure magnetic characterisation.
Measurement source
S25 · Section S4 · Figure S27
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
PcNi-Cu-10C OSV high coercive fieldHc (high) = 95 OeFigure Axis
Rounded Reported
S25 · Section S4 · Figure S27
PcNi-Cu-10C OSV low coercive fieldHc (low) = 41 OeFigure Axis
Rounded Reported
S25 · Section S4 · Figure S27
PcNi-Cu-20C OSV high coercive fieldHc (high) = 243 OeFigure Axis
Rounded Reported
S25 · Section S4 · Figure S27
PcNi-Cu-20C OSV low coercive fieldHc (low) = 62 OeFigure Axis
Rounded Reported
S25 · Section S4 · Figure S27
PcNi-Cu-40C OSV high coercive fieldHc (high) = 400 OeFigure Axis
Rounded Reported
S25 · Section S4 · Figure S27
PcNi-Cu-40C OSV low coercive fieldHc (low) = 60 OeFigure Axis
Rounded Reported
S25 · Section S4 · Figure S27