four-channel biacore 3000 optical biosensor instrument Search Results


dam 80 differential amplifier  (World Precision Instruments)
95
World Precision Instruments dam 80 differential amplifier
Dam 80 Differential Amplifier, supplied by World Precision Instruments, used in various techniques. Bioz Stars score: 95/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/four-channel+biacore+3000+optical+biosensor+instrument/Four-Channel+Free+Radical+Analyzer/pmc06115394-199-19-26
Average 95 stars, based on 1 article reviews
dam 80 differential amplifier - by Bioz Stars, 2026-11
95/100 stars
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four channel microfluidic flow controllers  (Elveflow Inc)
96
Elveflow Inc four channel microfluidic flow controllers
FIG. 2. Functional classification of a cross-channel microfluidic junction. (a) A 2D CFD simulation of the flow pattern (with streamlines in solid curves and speed |u| in colors) from an arbitrary flux setting ( f1 - f4 at four ports) can be decomposed into three linearly independent flow modes: (b) two orthogonal displacement flow modes, and (c) one elongation flow mode. (d) The flow pattern in (a) is reproduced by a flow potential φ associated with fluid sources (or sinks) at the four corners of a square (q1 - q4). The square symmetry gives rise to (e) two degenerate dipole modes equivalent to two displacement modes in orthogonal directions, and (f) one quadrupole mode equivalent to elongation flow.
Four Channel Microfluidic Flow Controllers, supplied by Elveflow Inc, used in various techniques. Bioz Stars score: 96/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/four-channel+biacore+3000+optical+biosensor+instrument/Elveflow+OB1+Mk4+Microfluidic+Flow+Controller/10__1103_slash_physrevresearch__6__023234-142-10-14
Average 96 stars, based on 1 article reviews
four channel microfluidic flow controllers - by Bioz Stars, 2026-11
96/100 stars
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four-channel probe optical thermometer system  (Luxtron Corporation)
90
Luxtron Corporation four-channel probe optical thermometer system
FIG. 2. Functional classification of a cross-channel microfluidic junction. (a) A 2D CFD simulation of the flow pattern (with streamlines in solid curves and speed |u| in colors) from an arbitrary flux setting ( f1 - f4 at four ports) can be decomposed into three linearly independent flow modes: (b) two orthogonal displacement flow modes, and (c) one elongation flow mode. (d) The flow pattern in (a) is reproduced by a flow potential φ associated with fluid sources (or sinks) at the four corners of a square (q1 - q4). The square symmetry gives rise to (e) two degenerate dipole modes equivalent to two displacement modes in orthogonal directions, and (f) one quadrupole mode equivalent to elongation flow.
Four Channel Probe Optical Thermometer System, supplied by Luxtron Corporation, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/four-channel+biacore+3000+optical+biosensor+instrument/fluoroptic+thermometry+system+model+3100/pm17279524-69-19-24
Average 90 stars, based on 1 article reviews
four-channel probe optical thermometer system - by Bioz Stars, 2026-11
90/100 stars
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four-channel fiberoptic thermometry system model 3000-4  (Luxtron Corporation)
90
Luxtron Corporation four-channel fiberoptic thermometry system model 3000-4
FIG. 2. Functional classification of a cross-channel microfluidic junction. (a) A 2D CFD simulation of the flow pattern (with streamlines in solid curves and speed |u| in colors) from an arbitrary flux setting ( f1 - f4 at four ports) can be decomposed into three linearly independent flow modes: (b) two orthogonal displacement flow modes, and (c) one elongation flow mode. (d) The flow pattern in (a) is reproduced by a flow potential φ associated with fluid sources (or sinks) at the four corners of a square (q1 - q4). The square symmetry gives rise to (e) two degenerate dipole modes equivalent to two displacement modes in orthogonal directions, and (f) one quadrupole mode equivalent to elongation flow.
Four Channel Fiberoptic Thermometry System Model 3000 4, supplied by Luxtron Corporation, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/four-channel+biacore+3000+optical+biosensor+instrument/four+channel+fiberoptic+thermometry+system+model+3000+4/pm10352621-33-4-10
Average 90 stars, based on 1 article reviews
four-channel fiberoptic thermometry system model 3000-4 - by Bioz Stars, 2026-11
90/100 stars
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Image Search Results


FIG. 2. Functional classification of a cross-channel microfluidic junction. (a) A 2D CFD simulation of the flow pattern (with streamlines in solid curves and speed |u| in colors) from an arbitrary flux setting ( f1 - f4 at four ports) can be decomposed into three linearly independent flow modes: (b) two orthogonal displacement flow modes, and (c) one elongation flow mode. (d) The flow pattern in (a) is reproduced by a flow potential φ associated with fluid sources (or sinks) at the four corners of a square (q1 - q4). The square symmetry gives rise to (e) two degenerate dipole modes equivalent to two displacement modes in orthogonal directions, and (f) one quadrupole mode equivalent to elongation flow.

Journal: Physical Review Research

Article Title: Symmetry-group-protected microfluidics

doi: 10.1103/physrevresearch.6.023234

Figure Lengend Snippet: FIG. 2. Functional classification of a cross-channel microfluidic junction. (a) A 2D CFD simulation of the flow pattern (with streamlines in solid curves and speed |u| in colors) from an arbitrary flux setting ( f1 - f4 at four ports) can be decomposed into three linearly independent flow modes: (b) two orthogonal displacement flow modes, and (c) one elongation flow mode. (d) The flow pattern in (a) is reproduced by a flow potential φ associated with fluid sources (or sinks) at the four corners of a square (q1 - q4). The square symmetry gives rise to (e) two degenerate dipole modes equivalent to two displacement modes in orthogonal directions, and (f) one quadrupole mode equivalent to elongation flow.

Article Snippet: Flows within the multilayer microfluidic channel were generated by two four-channel microfluidic flow controllers (Elveflow OB1 MK3+) with each channel’s pressure regulated independently between −0.9 and 1 bar relative to the atmospheric pressure.

Techniques: Functional Assay

FIG. 3. Microfluidic devices with 3D symmetries. (a) Fluid sources (or sinks) following a tetrahedral symmetry (q1 - q4) can be classified into three degenerate functions, (b) a mix of dipole p and quadrupole Q in each of the three orthogonal directions, representing simultaneous displacement and elongation of the fluid. (c) Fluid sources (or sinks) following an octahedral symmetry (q1 - q6) can be classified into two subgroups: (d) three dipoles along orthogonal directions (x, y and z) and (e) two quadrupoles in orthogonal planes (e.g., x-y and x-z), contributing to separate displacement and elonga- tion functions.

Journal: Physical Review Research

Article Title: Symmetry-group-protected microfluidics

doi: 10.1103/physrevresearch.6.023234

Figure Lengend Snippet: FIG. 3. Microfluidic devices with 3D symmetries. (a) Fluid sources (or sinks) following a tetrahedral symmetry (q1 - q4) can be classified into three degenerate functions, (b) a mix of dipole p and quadrupole Q in each of the three orthogonal directions, representing simultaneous displacement and elongation of the fluid. (c) Fluid sources (or sinks) following an octahedral symmetry (q1 - q6) can be classified into two subgroups: (d) three dipoles along orthogonal directions (x, y and z) and (e) two quadrupoles in orthogonal planes (e.g., x-y and x-z), contributing to separate displacement and elonga- tion functions.

Article Snippet: Flows within the multilayer microfluidic channel were generated by two four-channel microfluidic flow controllers (Elveflow OB1 MK3+) with each channel’s pressure regulated independently between −0.9 and 1 bar relative to the atmospheric pressure.

Techniques:

FIG. 4. Realization of the octahedral symmetry in 3D microfluidics. (a) An octahedron viewed along its original (1,1,1) axis (inset) is converted into a microfluidic junction with all sources (or sinks) distributed at two planes perpendicular to the imaging axis z′. (b) The dipole flows in microscope coordinates (x′, y′, z′) are obtained by linear combination of the three orthogonal dipole modes [Fig. 3(d)], with their experimental realizations shown in (c), (d), and (e), respectively. The axial z′ positions of the seeding particles are obtained by correlating their phase-contrast images (projected in the bottoms of volumes) with a calibrated library of diffraction patterns.

Journal: Physical Review Research

Article Title: Symmetry-group-protected microfluidics

doi: 10.1103/physrevresearch.6.023234

Figure Lengend Snippet: FIG. 4. Realization of the octahedral symmetry in 3D microfluidics. (a) An octahedron viewed along its original (1,1,1) axis (inset) is converted into a microfluidic junction with all sources (or sinks) distributed at two planes perpendicular to the imaging axis z′. (b) The dipole flows in microscope coordinates (x′, y′, z′) are obtained by linear combination of the three orthogonal dipole modes [Fig. 3(d)], with their experimental realizations shown in (c), (d), and (e), respectively. The axial z′ positions of the seeding particles are obtained by correlating their phase-contrast images (projected in the bottoms of volumes) with a calibrated library of diffraction patterns.

Article Snippet: Flows within the multilayer microfluidic channel were generated by two four-channel microfluidic flow controllers (Elveflow OB1 MK3+) with each channel’s pressure regulated independently between −0.9 and 1 bar relative to the atmospheric pressure.

Techniques: Imaging, Microscopy

FIG. 8. Symmetry in a four-channel microfluidic junction. A total of eight equivalent flow patterns (regardless of rotation and reflection) are accessible in the same microfluidic junction, repre- senting a D4 symmetry.

Journal: Physical Review Research

Article Title: Symmetry-group-protected microfluidics

doi: 10.1103/physrevresearch.6.023234

Figure Lengend Snippet: FIG. 8. Symmetry in a four-channel microfluidic junction. A total of eight equivalent flow patterns (regardless of rotation and reflection) are accessible in the same microfluidic junction, repre- senting a D4 symmetry.

Article Snippet: Flows within the multilayer microfluidic channel were generated by two four-channel microfluidic flow controllers (Elveflow OB1 MK3+) with each channel’s pressure regulated independently between −0.9 and 1 bar relative to the atmospheric pressure.

Techniques:

FIG. 9. Pressure regulations for stress-free microfluidic flows. (a) Six smooth time-dependent pressure curves P1 - P6, normalized by the maximal pressure Pmax = 11 mbar, were designed (as functions of time t) and applied to a six-channel microfluidic device (inset). Here, the curves correspond to the ideal ones for generating a 3D Lissajous flow (with a period T = 8 s). (b) The actual pressures monitored (by the pressure regulator) during the experiment show a consistent pattern.

Journal: Physical Review Research

Article Title: Symmetry-group-protected microfluidics

doi: 10.1103/physrevresearch.6.023234

Figure Lengend Snippet: FIG. 9. Pressure regulations for stress-free microfluidic flows. (a) Six smooth time-dependent pressure curves P1 - P6, normalized by the maximal pressure Pmax = 11 mbar, were designed (as functions of time t) and applied to a six-channel microfluidic device (inset). Here, the curves correspond to the ideal ones for generating a 3D Lissajous flow (with a period T = 8 s). (b) The actual pressures monitored (by the pressure regulator) during the experiment show a consistent pattern.

Article Snippet: Flows within the multilayer microfluidic channel were generated by two four-channel microfluidic flow controllers (Elveflow OB1 MK3+) with each channel’s pressure regulated independently between −0.9 and 1 bar relative to the atmospheric pressure.

Techniques: