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D80 camera

Manufactured by Nikon
Sourced in Japan

The Nikon D80 is a digital single-lens reflex (DSLR) camera. It features a 10.2-megapixel DX-format CCD image sensor, a 3-inch LCD display, and supports JPEG and RAW image file formats. The camera is capable of capturing still images and video recordings.

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9 protocols using d80 camera

1

Multimodal Treatment for Acne Scars

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Fifty-six patients (22 women and 34 men) with Fitzpatrick skin Type IV,11 (link) Type V (44), and Type VI1 (link) and rolling acne scars were treated in the study with a combined treatment that included extensive subcision, a full-face 20% trichloracetic acid (TCA) peel, and fractional ablative erbium laser.
All patients gave informed consent. The principles of the 1975 Declaration of Helsinki were followed.
Evaluations were performed using photographs taken immediately before the procedure, approximately 1 week and 1 month postoperatively using a Canfield Mirror Suite software (Canfield Scientific, Incorporated, Fairfield, MJ) and a Nikon D-80 camera (Nikon, Konan, Minato-Ku, Tokyo, Japan). Photographs of the patients were reviewed by 3 blinded observers (2 dermatologists and 1 dermatology physician assistant), and improvement was graded on a scale of 1 to 4; 1 = 0% to 25%, 2 = 26% to 50%, 3 = 51% to 75%, and 4 = 76% to 100%.
Adverse effects were recorded at each follow-up visit.
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2

Ophthalmic Imaging Protocol in UK Biobank

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In the UK Biobank, more than 133,000 participants underwent an enhanced ophthalmic assessment between 2009 and 2010 at 6 assessment centres, including ophthalmic imaging.[17 ] The right eye was imaged first. Single-field colour fundus photographs (45° field-of-view, centred to include both optic disc and macula) and macular OCT scans were captured using a digital Topcon-1000 integrated ophthalmic camera (Topcon 3D OCT1000 Mark II, Topcon Corp., Tokyo, Japan). Ophthalmic examination for 8,623 EPIC-Norfolk participants was performed between 2004 and 2011. Fundus photography was acquired using a TRC-NW6S non-mydriatic retinal camera and IMAGEnet Telemedicine System (Topcon Corporation, Tokyo, Japan) with a 10 megapixel Nikon D80 camera (Nikon corporation, Tokyo, Japan).[16 (link)]
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3

Grading protocol for AMD classification

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Digital fundus photographs of the optic disc and macula were taken using a TRC-NW6S non-mydriatic retinal camera and IMAGEnet Telemedicine System (Topcon Corporation, Tokyo, Japan) with a 10 megapixel Nikon D80 camera (Nikon Corporation, Tokyo, Japan) without pharmacological dilation of the pupil. AMD was categorised by independent graders using a modified Wisconsin protocol[31 (link)]. Main features for each image were assessed with standardised photographs and included:

Hard drusen size <63 μm, with more than ten hard drusen required to be present for the lesion to be classified as present

Soft drusen of size ≥125μm, with presence of one soft drusen sufficient for classification of lesion to be present

Geographic atrophy

Choridal neovascularisation

Retinal Pigment Epithelium (RPE) detachment

Disciform scar

The predominant phenotype observed or the most severe lesion for each eye was used as the final grading for that eye. Individual categorisation of AMD lesion was based on the more severely affected eye.
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4

Grading of Age-Related Macular Degeneration

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Digital fundus photographs of the optic disc and macula were taken using a TRC-NW6S non-mydriatic retinal camera and IMAGEnet Telemedicine System (Topcon Corporation, Tokyo, Japan) with a 10 megapixel Nikon D80 camera (Nikon Corporation, Tokyo, Japan) without pharmacological dilation of the pupil. AMD was categorized by independent graders using a modified Wisconsin protocol.29 (link) Main features for each image were assessed with standardized photographs and included:

Hard drusen size <63 μm, with more than ten hard drusen required to be present for the lesion to be classified as present;

Soft drusen of size ≥125 μm, with presence of one soft drusen sufficient for classification of lesion to be present;

Geographic atrophy;

Choridal neovascularisation;

Retinal Pigment Epithelium (RPE) detachment; and

Disciform scar.

The prominent phenotype observed or the most severe lesion for each eye was used as the final grading for that eye. Individual categorization of AMD lesion was based on the more severely affected eye.
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5

Morphological Examination of Insect Specimens

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The terminology follows Liljeblad and Ronquist (1998) (link) and Melika (2006) for morphological structures, Ronquist and Nordlander (1989) for forewing venation and Harris (1979) for patterns of cuticular sculpture. Measurements and abbreviations used herein are: F1–F12, first and subsequent flagellomeres; POL (post-ocellar distance), the distance between the inner margins of the posterior ocelli; OOL (ocellar-ocular distance), the distance from the outer edge of a posterior ocellus to the inner margin of the compound eye; and LOL, the distance between posterior and frontal ocelli. The width of the forewing radial cell is measured from the margin of the wing to the Rs vein. Morphological studies were based on the dried and point-mounted specimens. A few specimens were dismembered for detailed photographs of characters and stored in small vials filled with dry cotton. Photographs were taken using a Leica M205C microscope system equipped (Leica Inc., Germany) with a Leica DMC6200 digital camera attached to a computer. Images of the galls were taken with a Nikon D80 ca­mera. All types are deposited in the Insect Collection, Central South University of Forestry and Technology, Changsha, Hunan (CSUFT).
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6

Standardized Plant Imaging Protocol

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Images were taken with a D80 Nikon camera on a tripod at a fixed distance from the imaging stage, with fixed focus. Auto exposure was used to compensate for changing light conditions throughout the day in the greenhouse. The plants were processed iteratively through each block. Because each block was randomized the effect of dynamic lighting conditions would affect treatments randomly. The imaging stage had a dark felt background and metric/SAE rulers were fixed to the stage on both X and Y axes.
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7

Imaging Methods for Selaginella kraussiana

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Images of living S. kraussiana were taken using a Keyence Digital microscope (VHX-1000E) with a RZ×50 or RX×20-x 200 objective lens, a D80 Nikon camera with a EX Sigma 50 mm 1:2.8 DG MACRO lens, or a Google Pixel 6 phone camera. Images of in situ sections were taken using a Leica DM2000 LED microscope with ×20 and ×40 objective lenses and a Leica MC120 HD camera attachment.
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8

Diabetic Retinopathy Assessment via Fundus Imaging

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Participants underwent ocular examinations, including stereofundus photography. A 45° non-mydriatic digital retinal image centered on the fovea was taken of each eye, for a total of two images per person46 (link). A TRC-NW6S non-mydriatic fundus camera (Topcon, Tokyo, Japan) linked to a D-80 camera (Nikon, Tokyo, Japan) was used to obtain digital fundus images. Retinopathy was graded based on the presence of microaneurysms, haemorrhages, hard exudates, area of revascularization, fibrous proliferation, and/or laser scars in the more severely affected eye. The Early Treatment Diabetic Retinopathy Study scale was used to define the severity of DR: 1, absence of retinopathy (level 10); 2, mild to moderate NPDR (level 20, 35, and 43); and 3, severe NPDR and proliferative DR (level ≥47)47 . The classification of DR was described in a previous study48 (link). The quality of the survey was verified by the Epidemiologic Survey Committee of the Korean Ophthalmological Society.
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9

Indicator Reactions Characterization Methods

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Indicator reactions were carried out in 96-well fluorometric plates (Nunc F96 MicroWell, white, Thermo Scientific, Waltham, MA, USA, cat. No. 136101, or Sovtech, Novosibirsk, Russia, cat. No. M-018). The absorption/reflection of the reaction mixtures in the visible region of the spectrum was photographed with a smartphone camera. NIR fluorescence of the reaction mixtures was monitored using a home-made NIR visualizer [18 (link)] containing 11 red LEDs (660 nm) with a power of 3 W as a light source (Minifermer, Moscow, Russia) and a Nikon D80 camera with a light filter cutting off visible light up to 700 nm. The UV-vis spectra were recorded on an SF-102 spectrophotometer (Interfotofizika, Moscow, Russia) in 0.2 × 1.0 cm quartz cells (an internal volume of 0.5 mL and an optical path length of 1 cm). Fluorescence spectra were obtained using a Fluorat-02 Panorama spectrofluorometer (Lumex, St. Petersburg, Russia).
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