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Weight Chart for WomenWeight in pounds, based on ages 25-59 with the lowest
mortality rate
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Height |
Small Frame |
Medium Frame |
Large Frame |
|---|---|---|---|
5'2" |
128-134 |
131-141 |
138-150 |
| 5'3" |
130-136 |
133-143 |
140-153 |
| 5'4" |
132-138 |
135-145 |
142-156 |
| 5'5" |
134-140 |
137-148 |
144-160 |
| 5'6" |
136-142 |
139-151 |
146-164 |
| 5'7" |
138-145 |
142-154 |
149-168 |
| 5'8" |
140-148 |
145-157 |
152-172 |
| 5'9" |
142-151 |
148-160 |
155-176 |
| 5'10" |
144-154 |
151-163 |
158-180 |
| 5'11" |
146-157 |
154-166 |
161-184 |
| 6'0" |
149-160 |
157-170 |
164-188 |
| 6'1" |
152-164 |
160-174 |
168-192 |
| 6'2" |
155-168 |
164-178 |
172-197 |
| 6'3" |
158-172 |
167-182 |
176-202 |
| 6'4" |
162-176 |
171-187 |
181-207 |
*Ideal Weights according to the Metropolitan Life Insurance Company tables
(1983)
Following is the method the Metropolitan Life Insurance Company used to calculate frame size:
Elbow Measurements for Medium Frame |
|||
| Men |
Elbow Measurement |
Women |
Elbow Measurement |
|---|---|---|---|
| 5'2" - 5'3" |
2-1/2" to 2-7/8" |
4'10"-4'11" |
2-1/4" to 2-1/2" |
| 5'4" - 5'7" |
2-5/8" to 2-7/8" |
5'0" - 5'3" |
2-1/4" to 2-1/2" |
| 5'8" - 5'11" |
2-3/4" to 3" |
5'4" - 5'7" |
2-3/8" to 2-5/8" |
| 6'0" - 6'3" |
2-3/4" to 3-1/8" |
5/8" - 5'11" |
2-3/8" to 2-5/8" |
| 6'4" |
2-7/8" to 3-1/4" |
6'0" |
2-1/2" to 2-3/4" |
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Over its lifetime, film accumulates micro-scratches on its base or emulsion layer. To prevent these defects from showing up in the digital scan, advanced facilities use . The film is submerged in a liquid (typically perchloroethylene or a safer proprietary optical fluid) with a refractive index identical to the film base. The liquid fills in the scratches, causing the scanner's light to pass straight through them, effectively "vanishing" physical damage from the digital capture. The Digital Intermediate (DI) Workflow at 8K and Beyond
A single frame of 11K 16-bit IMAX scan can exceed 500 megabytes. At 24 frames per second, one minute of footage consumes roughly 720 gigabytes of data. Studios require multi-petabyte storage arrays with massive read/write bandwidth just to play the files back in real-time.
Although specific public pricing for IMAX 70mm varies based on volume and resolution requirements (e.g., 4K vs 8K), the cost structure is distinctly high-end. General film scanning services for 35mm often run , a figure that scales dramatically with the frame size and resolution demands of IMAX film. For 65mm/IMAX scanning specifically, services are generally billed on a per-frame basis with custom quotes required for each project, reflecting the extreme time and equipment investment required. When you consider that one second of film contains 24 frames, the cost to scan a three-minute reel can easily run into the tens of thousands of dollars.
Scanning IMAX film is a meticulous, time-consuming operation. High-end labs like Cinelab Film & Digital use specialized hardware like the to handle these massive negatives. imax film scan
It is this immense potential that drives the industry. IMAX's VP of Post Production, Greg Ciaccio, notes that the IMAX format's theoretical resolution limit is . Yet, theoretical potential must meet practical reality. For many years, IMAX relied on an aging Northlight scanner that had passed its prime. The company has since invested in state-of-the-art Lasergraphics Director 13.5K scanners , which are currently used for its most critical archival projects.
Companies like IMAX use bespoke scanning equipment at their headquarters to handle the 65mm negatives.
IMAX film scanning serves two distinct purposes in the modern cinematic landscape: new theatrical productions and heritage preservation. New Productions (The DI Workflow) Over its lifetime, film accumulates micro-scratches on its
The Ultimate Guide to IMAX Film Scanning: Preserving the Pinnacle of Analog Cinema
Other high-end scanners are also key players. The is designed to handle 65mm 5-perf and 15-perf IMAX film, a crucial tool for modern post-production houses like Cinelab, which handled the 65mm and IMAX processing for "No Time To Die". These are not consumer devices; they are the ultra-high-end tools of the trade.
When scanned, a standard 35mm frame is often digitized at 4K (4096 x 3112 pixels). A traditional 5-perf 70mm frame, due to its larger size, can be scanned at 8K. By this logic, an IMAX 15/70 frame should be scanned at a much higher resolution, and various industry sources have weighed in with estimates: The liquid fills in the scratches, causing the
Here are a few options for a post about an "IMAX film scan," depending on the context (e.g., a photographer/tech enthusiast, a movie theater, or a film preservationist).
The scanning process is far from simply "taking a picture of the film." It is a multi-stage procedure designed to capture every possible photon of information.
Enthusiasts on forums frequently discuss using high-end consumer scanners for this task. For example, a capable of 4000 DPI (dots per inch) is often recommended. Because an IMAX cell measures roughly 2.74" x 1.913", a 4000 DPI scan yields a raw file of approximately 8000 x 4000 pixels (32 Megapixels) , which is massive for a single still frame.
Today, we can digitize these massive frames at staggering resolutions, ensuring that the vision of directors like Nolan, Kubrick, and Villeneuve survives long after the celluloid fades.
To scan an IMAX film is to fight against the limits of technology. For years, scanners didn't exist that could capture the full resolution of a 15/70mm frame without damaging the precious negative.