Christ's burial cloth shows signs
of the crucifixion and resurrection:

Characteristics of the image on
the Shroud of Turin:
This is how the shroud appears
on display. See full front and back photos of the shroud in positive
and negative. The negative image
appears more life-like.



Chrysanthemum coronarium
sketch, on shroud and as a kirlian image.
Plant images found on the shroud
include: Chrysanthemum cf. coronarium L., Pistacia atlantica Desf.,
Pistacia lentiscus L., Zygophyllum dumosum Boiss, Capparis aegyptia,
Cistus creticus and Gundelia tournefortii L (the crown
of thorns). Pollens also identify dozens of flowers in the middle
east blooming in March or April.


Zygophyllum dumosum Boiss
and a pollen grain from the shroud.

The Sudarium of Oviedo, the burial
face cloth documented from the 1st Century and kept in the Cathedral
of Oviedo in Spain since the 8th Century, carries pollen from the
crown of thorns as well as the same pattern of Type AB blood stains
as the shroud.

The wounds of the crown of thorns
on the Shroud of Turin (a) and the Sudarium of Oviedo (b).
The shroud image also has these
characteristics: 1
Superficiality:
Although the areas of the stigmata are formed by type AB human blood
based on photomicrography and an absorption spectrum of denatured
met-haemoglobin, 2 the negative image itself
is a pure sepia monochrome discoloration of the surface fibers of
the linen threads of the fabric. This image is not visible on the
underside of the Shroud. In addition, the image is not visible at
close range, as it 'melts away like mist'. 3
Detail: The Shroud's
negative image, when transformed to a positive by photography, is
richly detailed, which has allowed medical experts to claim that they
are able to detect the presence of such details as rigor mortis, contusion
wounds, excoriations and a variety of facial wounds. 4
It should also be considered that without the medium of modern photography
it is uncertain if anyone living before circa 1898 when Secondo Pia
made his historic photographic negatives of the Shroud could have
seen these details. Another way to see the positive image on the Shroud
of Turin is by staring at a single point on its negative image for
a minute and then observing the after-image by looking at a blank
surface.
Thermal stability:
The Shroud's image survived the intense heat of a fire which nearly
destroyed it in 1532.
Lack of any pigment:
It is quite certain that no pigment, dye or stain was used. The discoloration
forming the image is only in the topmost crown fibrils of the cloth’s
thread with no image beneath any cross threads, and no pattern of
capillarity, ruling out the possibility of any liquid chemicals being
the cause.
Three-dimensionality:
The intensity of the image varies according to the distance of the
body from the cloth, strongly suggesting that the body did not in
fact come into direct contact with the Shroud. The mathematical ratio
is so precise that Jackson and Jumper were able to create a three-dimensional
replica from the image of the Shroud taken in 1931 by G. Enrie using
a VP-8 Image Analyzer.
Negative: The
image is a negative which appears as a visually coherent positive
photograph with the reversal of the tonal polarity.
Directionless:
The process that formed the image was non-directional. An image applied
by hand, such as a painting, shows strong directionality, such as
brush strokes. The projective information of the image is collimated
and anisotropic with no side images. The data points, being the density
of discolored fibrils at places on the images can be plotted to produce
a realistic isometric 3-D image of a human form from different angles.
No known painting or other work of art or photograph of a human form
produces these effects. Physicists have hypothesized that this could
be caused by the dematerialization of a body. This could be related
to the radiant energy seen with the dematerialization of certain m-state
(spirit-body) minerals.
Chemical stability:
The straw-yellow discolouration composing the Shroud image cannot
be dissolved, bleached, or changed by standard chemical agents. It
has the qualities of an angelic image.
Water stability:
The Shroud was doused with water in putting out the fire of 1532.
Although this caused a water stain, the image itself is not affected.
Radiocarbon-Dating:
The piece of the Shroud removed for carbon dating was of a different
shape than the piece of cloth actually tested. After the scientists
cut the sample they went into a different room and came back with
the cloth that was actually tested. The oldest radiocarbon date reported
was 1260, the number of days in the reign of the Anti-Christ.
the Fraud
The reports by Riggi and Testore
give to the nearest milligram the weights of the samples taken from
the Shroud by the scientists claiming to try to establish an accurate
radiocarbon date. How accurate is the work of these scientists?
| Report |
Dimensions |
Mass |
Area |
Samples |
Mass |
| Original film |
|
478.1 mg |
|
|
|
| Riggi Report no 1, of 26 April 1988 (Rapporto
Sindone, page 166) |
7 cm by 1 cm not from the border |
161 mg |
8 cm^2 reduced to 7 cm^2 to remove threads
of another nature |
3 (about 50 mg each) |
23 mg /cm^2 |
| Lyon-Matin 8 May 1988, G. Vial |
"it was agreed that a strip 8 cm
long and 1.5 cm wide" from the border |
|
12 cm^2 |
|
|
| Paris-Match for 29 July 1988 (p. 14),
J. Évin |
Vial and Testore "cut three small
strips of cloth, each piece measuring about one by seven centimetres" |
|
21 cm^2 |
|
|
| Hall interview by John Cornwell in The
Tablet, 14 January 1989 |
"the sample was not taken from a
border. And, of course, we would have been mad to take it from
there. We took it from a part of the Shroud well inside" |
|
|
|
|
| official report published by Nature, 16
February 1989 (p. 612) |
10 mm by 70 mm |
|
7 cm^2 |
divided into three parts |
|
| Testore Report no 1, of 7 September 1989
(Acts of the Paris Symposium, p. 52 and 68) |
81 mm (warp) by 16 mm (weft) |
300.0 mg (twice that needed: 3 samples
of 40 mg each were planned) |
12.96 cm^2 |
divided in 5 pieces: first divided in
two: 154.9 mg & 144.8 mg, with a loss of 0.3 mg; 154.9 mg
piece then divided into three: 52.0 mg, 52.8 mg, & 53.7 mg
(which actually adds up to 158.5 mg, for a gain of 3.6 mg) |
|
| Riggi Report no 2, of September 1989 (Acts
of the Paris Symposium, p. 39 and 41) [changes his earlier data] |
8.1 cm by 1.6 cm; 46% trimmed off to 7
cm by 1 cm (official report in Nature makes no mention of trimming) |
540 mg (text, p. 39) or 497 mg (drawing,
p. 41); 300 mg (trimmed); should be 298 mg (based on specific
mass); trimmed should be 161 mg |
12.96 cm^2 trimmed to 7 cm^2 |
300 mg piece (note: should be 161 mg)
divided into two of 150 mg (text) (note: should be 80.5 mg) or
141 mg (drawing) & 159 mg (calculation) divided into three
of 53 mg each (note: should be 27 mg) |
|
| Tucson laboratory report |
|
|
2 cm^2 (which is about 1/6 of 12.96 cm^2
or about 1/3 of 7 cm^2) |
|
|
| Riggi at a conference at the Rosetum in
Milan on 28 November 1989 |
|
claims he still has a 141 mg piece |
|
|
|
| Testore’s version no 2, rectification
of the 28 October 1989 (Acts of the Paris Symposium, p. 54 and
69) |
|
144.8 mg divided: 52.0 mg, 52.8 mg, and
39.6 mg (not 53.7) plus14.1 mg taken from the 154.9 mg piece (39.6
+ 14.1 mg = 53.7) (50 mg samples needed and not taken from the
154.9 mg piece, except for 14.1 mg) |
|
|
|
| Riggi’s version no. 3 (Petrosillo,
p. 129) |
|
154.9 mg divided: 52.0 mg, 52.8 mg, and
50.1 mg. To 50.1 mg added 3.6 mg from the 144.8 mg piece: 50.1
+ 3.6 = 53.7. (why add to a 50.1 mg piece when 40 mg is needed?) |
|
|
|
| Bonnet-Eymard, vol. II, p. 140-150 |
Two different and incompatible pieces
of cloth seem to be involved. A piece
of authentic cloth from the Shroud measuring 8.1 cm by 1 cm was
removed in public, seen, and lost since 21 April. These dimensions
come from Testore’s report and are confirmed by Vial. #2:
A 7 cm x 1 cm strip from another cloth, from which samples were
extracted for the laboratories. Everyone has heard about this
strip, but no one has seen it. Its dimensions are those of Riggi’s
first report and of Tite’s account in Nature |
|
8.1 cm^2 |
|
|
The proof of the substitution lies in:
-
The request
for a double of the sample which could take the place of the authentic
sample. This attempt failed for the piece taken from Saint Louis
d’Anjou’s cope. The same request was made of Ian Wilson.
There may have been a second double of the sample.
-
The changes
in the various reports by Riggi and Testore.
-
The observation
in the official report that the sample reveals no contamination,
which is not possible unless the sample comes from another cloth.
-
A photograph
(published by B. Bonnet-Eymard, vol. II, p. 150) of a part of
the sample was delivered to the Tucson laboratory, at 11 times
linear enlargement (121 times by area). The sample is abnormally
clean, considering that it was photographed before the cleaning
process. The weave is the same as that of the Shroud, but it is
much lighter in color.
Footnotes:
1 Stevenson and Habermas (1981).
2 Pellicori (1980:1916).
3 Wilson (1978:9).
4 Barbet (1950:23-45).