infrared en face view Search Results


en face near-infrared (nir) reflectance (ref)  (heidelberg engineering)
90
heidelberg engineering en face near-infrared (nir) reflectance (ref)
Diagnostic hallmarks of ESCS on <t>SD-OCT</t> and full-field ERGs. A. Horizontal, 16.4-mm-long, SD-OCT cross-section from near fovea (F) into nasal (N) retina in the patient compared with a normal subject. Nuclear layers (INL, inner nuclear layer; GCL, ganglion cell layer) and outer photoreceptor laminae are labeled (1, outer limiting membrane; 2, inner segment/outer segment junction near the inner segment ellipsoid zone [ISe]; 3, interdigitation between photoreceptor outer segment tips and apical retinal pigment epithelium; and 4, retinal pigment epithelium, following conventional terminology. Asterisks are placed near hyporreflective cystoid spaces. Arrow points to vitreoretinal band or posterior hyaloid that separates optically empty spaces from a vitreous with reflective dots. B. Standard full-field ERGs in the patient compared with a representative normal subject. C. Light-adapted ERGs elicited with long-wavelength (637-nm, thin gray traces) and SW (467-nm, thick gray traces) stimuli matched (3 phot-cd·s·m−2) for L-M cone stimulation in the normal subject elicit grossly mismatched waveforms in the patient. Traces start at stimulus onset. Calibration bars are to the right of the traces.
En Face Near Infrared (Nir) Reflectance (Ref), supplied by heidelberg engineering, 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/infrared+en+face+view/en+face+near+infrared++nir++reflectance++ref+/pmc06980308-58-0-25
Average 90 stars, based on 1 article reviews
en face near-infrared (nir) reflectance (ref) - by Bioz Stars, 2026-10
90/100 stars
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infrared en face view  (heidelberg engineering)
90
heidelberg engineering infrared en face view
Diagnostic hallmarks of ESCS on <t>SD-OCT</t> and full-field ERGs. A. Horizontal, 16.4-mm-long, SD-OCT cross-section from near fovea (F) into nasal (N) retina in the patient compared with a normal subject. Nuclear layers (INL, inner nuclear layer; GCL, ganglion cell layer) and outer photoreceptor laminae are labeled (1, outer limiting membrane; 2, inner segment/outer segment junction near the inner segment ellipsoid zone [ISe]; 3, interdigitation between photoreceptor outer segment tips and apical retinal pigment epithelium; and 4, retinal pigment epithelium, following conventional terminology. Asterisks are placed near hyporreflective cystoid spaces. Arrow points to vitreoretinal band or posterior hyaloid that separates optically empty spaces from a vitreous with reflective dots. B. Standard full-field ERGs in the patient compared with a representative normal subject. C. Light-adapted ERGs elicited with long-wavelength (637-nm, thin gray traces) and SW (467-nm, thick gray traces) stimuli matched (3 phot-cd·s·m−2) for L-M cone stimulation in the normal subject elicit grossly mismatched waveforms in the patient. Traces start at stimulus onset. Calibration bars are to the right of the traces.
Infrared En Face View, supplied by heidelberg engineering, 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/infrared+en+face+view/infrared+en+face+view/pm27540851-36-12-53
Average 90 stars, based on 1 article reviews
infrared en face view - by Bioz Stars, 2026-10
90/100 stars
  Buy from Supplier

Image Search Results


Diagnostic hallmarks of ESCS on SD-OCT and full-field ERGs. A. Horizontal, 16.4-mm-long, SD-OCT cross-section from near fovea (F) into nasal (N) retina in the patient compared with a normal subject. Nuclear layers (INL, inner nuclear layer; GCL, ganglion cell layer) and outer photoreceptor laminae are labeled (1, outer limiting membrane; 2, inner segment/outer segment junction near the inner segment ellipsoid zone [ISe]; 3, interdigitation between photoreceptor outer segment tips and apical retinal pigment epithelium; and 4, retinal pigment epithelium, following conventional terminology. Asterisks are placed near hyporreflective cystoid spaces. Arrow points to vitreoretinal band or posterior hyaloid that separates optically empty spaces from a vitreous with reflective dots. B. Standard full-field ERGs in the patient compared with a representative normal subject. C. Light-adapted ERGs elicited with long-wavelength (637-nm, thin gray traces) and SW (467-nm, thick gray traces) stimuli matched (3 phot-cd·s·m−2) for L-M cone stimulation in the normal subject elicit grossly mismatched waveforms in the patient. Traces start at stimulus onset. Calibration bars are to the right of the traces.

Journal: Retinal cases & brief reports

Article Title: ENHANCED S-CONE SYNDROME: VISUAL FUNCTION, CROSS-SECTIONAL IMAGING, AND CELLULAR STRUCTURE WITH ADAPTIVE OPTICS OPHTHALMOSCOPY

doi: 10.1097/ICB.0000000000000891

Figure Lengend Snippet: Diagnostic hallmarks of ESCS on SD-OCT and full-field ERGs. A. Horizontal, 16.4-mm-long, SD-OCT cross-section from near fovea (F) into nasal (N) retina in the patient compared with a normal subject. Nuclear layers (INL, inner nuclear layer; GCL, ganglion cell layer) and outer photoreceptor laminae are labeled (1, outer limiting membrane; 2, inner segment/outer segment junction near the inner segment ellipsoid zone [ISe]; 3, interdigitation between photoreceptor outer segment tips and apical retinal pigment epithelium; and 4, retinal pigment epithelium, following conventional terminology. Asterisks are placed near hyporreflective cystoid spaces. Arrow points to vitreoretinal band or posterior hyaloid that separates optically empty spaces from a vitreous with reflective dots. B. Standard full-field ERGs in the patient compared with a representative normal subject. C. Light-adapted ERGs elicited with long-wavelength (637-nm, thin gray traces) and SW (467-nm, thick gray traces) stimuli matched (3 phot-cd·s·m−2) for L-M cone stimulation in the normal subject elicit grossly mismatched waveforms in the patient. Traces start at stimulus onset. Calibration bars are to the right of the traces.

Article Snippet: Spectral domain OCT, en face near-infrared (NIR) reflectance (REF), and fundus autofluorescence imaging using NIR and SW excitation lights were performed using a Spectralis-HRA system (Heidelberg Engineering GmbH, Heidelberg, Germany).

Techniques: Diagnostic Assay, Labeling, Membrane

A. Central retinal function and colocalized cross-sectional and cellular structure in ESCS. S-cone sensitivity profiles measured with a 440-nm stimulus on a yellow L-M cone adapting background compared with the normal range (gray band = mean ± 2 SD). Hatched bar: blind spot. B. Horizontal, 16.5-mm, SD-OCT through the fovea in the patient. Inset is an NIR-REF image with the location and orientation of the scan (green arrow). Asterisks denote cystoid spaces. Arrow points to transition zone where the ISe band becomes undetectable. Black arrow heads on the eccentricity axis denote locations where ONL thickness measurements from the patient (P) were compared with normal measurements (N) (plotted as vertical bars overlaid above SD-OCT cross-section). Scale bar is to the bottom left; (A and B) share the same eccentricity scale. C. AOSLO images from the patient with ESCS compared with a normal. Cone densities and cone spacing are denoted in panel. Cone density is approximately 2- and 3-fold higher than normal in the patient at 0.8 mm and 1.9 mm (~3° and 6°) temporal to the fovea, respectively. Scale bar: 25 μm.

Journal: Retinal cases & brief reports

Article Title: ENHANCED S-CONE SYNDROME: VISUAL FUNCTION, CROSS-SECTIONAL IMAGING, AND CELLULAR STRUCTURE WITH ADAPTIVE OPTICS OPHTHALMOSCOPY

doi: 10.1097/ICB.0000000000000891

Figure Lengend Snippet: A. Central retinal function and colocalized cross-sectional and cellular structure in ESCS. S-cone sensitivity profiles measured with a 440-nm stimulus on a yellow L-M cone adapting background compared with the normal range (gray band = mean ± 2 SD). Hatched bar: blind spot. B. Horizontal, 16.5-mm, SD-OCT through the fovea in the patient. Inset is an NIR-REF image with the location and orientation of the scan (green arrow). Asterisks denote cystoid spaces. Arrow points to transition zone where the ISe band becomes undetectable. Black arrow heads on the eccentricity axis denote locations where ONL thickness measurements from the patient (P) were compared with normal measurements (N) (plotted as vertical bars overlaid above SD-OCT cross-section). Scale bar is to the bottom left; (A and B) share the same eccentricity scale. C. AOSLO images from the patient with ESCS compared with a normal. Cone densities and cone spacing are denoted in panel. Cone density is approximately 2- and 3-fold higher than normal in the patient at 0.8 mm and 1.9 mm (~3° and 6°) temporal to the fovea, respectively. Scale bar: 25 μm.

Article Snippet: Spectral domain OCT, en face near-infrared (NIR) reflectance (REF), and fundus autofluorescence imaging using NIR and SW excitation lights were performed using a Spectralis-HRA system (Heidelberg Engineering GmbH, Heidelberg, Germany).

Techniques: