Tuesday, April 19, 2011

Comparing Baleen & Reed

I had heard for years from various sources (on the internets) that reed is an acceptable substitute for real whalebone, and last year I decided to put it to the test. 

I ran through whatever “scientific” comparisons I could think of, and below are my results.  I used whalebone boning carefully extracted from one of my least-favorite antique bodices, and the reed I used to bone my Effigy corset.

Property

Whalebone

Split Cane

Substance

 

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(Left: whalebone; Right: cane)

Animal – Baleen Whale

protein keratin

Plant – Arundo Donax (Giant Cane)

cellulose

Color

 

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(Top: whalebone; Bottom: cane)

Dark brown/black

Tan/brown

Width

 

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(Top: whalebone; Bottom: cane)

Can be cut/split to any width.

Maximum width ??

(Purchased as 7 mm)

Can be cut/split to any width. Maximum width 7-9cm

(Purchased as 8 mm)

Length

 

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(Top: whalebone; Bottom: cane)

Can be cut to any size. Maximum length 3.5 m

Can be cut to any size. Maximum length 6-10 m

Thickness

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(Top: whalebone; Bottom: cane)

Can be split to any size. Maximum thickness varies – baleen is thicker at the base.

(Purchased as 1.5 mm)

Can be split to any size. Maximum thickness varies – reed is thicker at the root.

(Purchased as 2 mm)

Weight

 

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(Top: whalebone; Bottom: cane)

7 mm length = 0.1 oz

7 mm length = 0.1 oz

Flexibility

 

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(Top: whalebone; Bottom: cane)

Bent until ends are ¾ of straight length/ends touching. The baleen did not experience any cracking or breakage. 

Bent until ends are ¾ of straight length/ends touching. The reed did not experience any cracking or breakage.

Resilience

 

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(Top: whalebone; Bottom: cane)

After the flexibility experiment, the baleen returned to its original, straight shape. I noticed some keratinous fibers slightly separating from the surface after multiple bends.

After the flexibility experiment, the reed returned to its original, straight shape.

Density

 

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(Left: whalebone; Right: cane)

Solid

Porous

Texture

 

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(Top: whalebone; Bottom: cane)

Long keratinous fibers parallel to length

Long cellulose fibers parallel to length

Splitting

 

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(Left: whalebone; Right: cane)

The baleen splits along the fibers quite easily. I was able to split the baleen with my fingernails.

The reed splits along the fibers quite easily. I was able to split the reed with my fingernails.

Cutting

 

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(Top: Scissors; Middle: whalebone; Bottom: cane)

The baleen can be cut using regular craft scissors, although it is tougher to cut than the reed.

The reed can be easily cut using regular craft scissors.

Shaping

 

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(Top: whalebone; Bottom: cane)

Shaping can be achieved by soaking the baleen in warm water and allowing to dry in the desired shape. 

(Note – the curved shape relaxed over time, but did not return to the completely straight line it had before.  I would expect it to eventually straighten if not repeatedly shaped)

Shaping can be achieved by soaking the reed in warm water and allowing to dry in the desired shape.

(Note – the curve did relax somewhat over time, though not to the extent that the whalebone did.  My stays boned with reed retain the curvature of my body though I only wear them a few times a year.)

Filing

 

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(Top: whalebone; Bottom: cane)

Sharp corners and edges can be rounded using a file.

Sharp corners and edges can be rounded using a file.