Superior Wolf School Swords and Harness, The Witcher 3 (Part 1)
I’m a big fan of the Witcher series,
and the Witcher 3 is currently one of my favourite games, having spent
countless hours playing it since it came out. I’m very impressed with the
graphics and the attention to detail, and love the medieval design of the world
and its characters. When I found myself studying the stitching patterns on
Geralt’s leather armour and scabbards, I knew I had to make some witcher gear.
As is often the case, I made some incorrect assumptions as to the complexity of
the project when I was first idly thinking about it, but by the time I started
looking into it seriously, I’d already convinced myself that I had to do this project! So here we are,
over a year later, after countless hours of work, using a range of interesting
materials and techniques, with replicas of a pair of Geralt’s Superior Wolf
School swords and their carrying harness.
A quick glossary of terms I’ll be
using to refer to parts of the sword:
·
Fuller: Groove along the length of the blade.
·
Tang: The part of the blade that the hilt is
attached to.
·
Guard: Part at 90 degrees to the blade to
protect the wielder’s hand.
·
Pommel: Part attached to the bottom of the hilt
to act as a counterweight.
·
Locket: Metal section at the mouth of the
scabbard.
·
Chape: Metal section at the point of the
scabbard.
The Steel sword has a relatively
traditional broad-bladed longsword shape, but the double fullers and curved
guard arms give it a distinctive style. The Silver sword is a more unusual
design, with a longer, thinner blade that flares outwards near the guard. I had
to take some slight liberties with the design of the Silver sword, as in the
game these flared “wings” intersect with the geometry of the scabbard, making
it impractical in the real world. To get around this, I widened the scabbard
slightly to allow the wings fit inside, which required me to also widen the
elliptical block piece of the guard so that it would align with the locket.
Once I was happy with the 3D
models, I printed the blueprints and began fabrication. I cut two copies of
each sword shape out of 6mm MDF, sandwiching 1mm styrene sheets between the
layers to give me the centreline of the cutting edge. After laminating the
layers together for the Steel sword, I realised that the sword blank was
bending because the MDF wasn’t able to support its weight over such a long,
thin piece. To resolve this, I cut a channel down the length of the blade and
glued a steel rod into it, then filled it with Bondo (Isopon here in Ireland).
Luckily I hadn’t glued the Silver sword at this point, so I was able to embed a
steel rod in the centre and avoid the Bondo patch-up.
I drew the centre line onto the
sword blanks, then shaped them using a rough sanding drum on my Dremel and low
grit sandpaper on the palm sander, using the centre sheet of styrene as a guide
while grinding the edge. Once I had marked out the fullers on each blade, I
used narrow radius sanding drums and sandpaper wrapped around a wooden dowel to
hollow out the channels. After all this sanding, the MDF was getting knobbly
and hard to work with, so I brushed on a layer of Smooth-Cast 300 resin to give
me a better surface for sanding and finishing.
With the basic shape of the
blades complete, I decided to make the scabbard next so that I could align the
blades and ensure their cross guards would fit correctly when the swords were
sheathed. My initial plan was to shape a half scabbard from MDF and mold and
cast it, but I quickly realised that this would not be feasible with the tight
tolerances I was working within. I always try to use each project as an
opportunity to learn new skills, so I considered a variety of solutions for the
scabbard material: vacuformed styrene, heat-formed thermoplastic, fibreglass. I
had previously used fibreglass for making matrix molds, so I did some research
into similar materials, and settled on carbon fibre as my material. It fit all
my criteria: thin enough to use within tight tolerances, and strong enough to
retain rigidity over the long, thin length of the scabbard, while also
protecting the blades within, and cleaner to work with than fibreglass.
Once I had decided on my
material, I started work on the scabbard by shaping a buck out of MDF over
which to form the carbon fibre. I cut a second sheet of MDF with the same
outline as the scabbard half and pinned it to the back of the buck, so that I
could allow excess carbon fibre to overhang when I was stretching it over the
buck. The buck and this baseplate were sanded, primed and sealed, then covered
in release agent to prepare it for the carbon fibre layup.
A coat of epoxy was painted onto
the buck and allowed to start curing before laying down the initial layer of
carbon fibre. Two additional layers were added, with a coat of epoxy painted on
between each. I clamped tongue
depressors along the edges of the baseplate to stretch the material and
pull it evenly over the buck. Once the epoxy was cured, I was able to separate
the buck from the baseplate, then run the Dremel with a cutting disk along the
back of it to remove the excess material and get a consistent line for the half
scabbard. Unfortunately, I had some problems with releasing the carbon fibre
from the buck, and after trying varnish, polyurethane and epoxy to seal the
buck, and using a variety of release agents, small parts of the buck were still
tearing off each time. I didn’t mind sanding the excess material off the carbon
fibre, as the pieces were structural and wouldn’t be visible in the final prop,
but the damage to the buck required patching with Bondo, sanding, priming and
sealing each time.
Once I had completed the two
halves for each scabbard, I lined them with various thicknesses of foam and
foam tape so that each one would cushion their corresponding blade. The halves
were then clamped together and prepared for a final carbon fibre layup along
the join. I first sealed the join with aluminium tape to prevent any epoxy
dripping through and soaking into the foam, then coated it with epoxy and laid
a thin strip of carbon fibre along the rounded edge of the scabbard. After
applying two or three layers, the carbon fibre was lifting due to the curve of
the shape I was trying it adhere it to. I grabbed a roll of plastic sheeting
and stretched it over the scabbard, holding the carbon fibre in place, and thankfully
was easy to remove once the epoxy had cured.
With the major parts of the props
complete, I focused my attention on sculpting and fabricating all of the
smaller pieces, including guards, pommels and scabbard hardware. I
unfortunately don’t have any work in progress photos for these parts, but the
general approach was to cut the profile out of styrene, then bulk it out with
either MDF or Apoxie sculpt and sand it to the final shape. This method was
used for the blocks and arms of the guards, and for the fluted grip. To create
the chape and locket of the scabbard, I covered the top and bottom of the
scabbard in painters tape, and sculpted over it with Apoxie Sculpt.
I used different sculpting
techniques for each of the pommels. The bottom of an empty spray can was used
as the base for the rounded concave shape of the Steel sword’s pommel. The can
was held upside-down with the nozzle clamped down to drain the propellant, a
hole was drilled to pour out any remaining liquid, then the base was cut out
using a steel cutting disc on the Dremel. I cut and glued thin layers of
styrene into the concave piece to define the basic shape of the wolf head. The
details were then sculpted over this using a blend (about 60/40) of Games
Workshop’s Green Stuff and Milliput Superfine White epoxy putties that I find
useful for sculpting miniatures and smaller parts.
A single copy of the Silver sword’s entwined
wolf head was sculpted out of Super Sculpey Firm. I created a wire armature and
covered it with aluminium foil to define the basic shape of the wolf’s head,
forming the Sculpey around this and sculpting in the details, before baking the
finished sculpt.
Many of the swords’ pieces were
either symmetrical or required two identical copies to make the finished piece.
For symmetrical pieces, including the locket and the central ring part of the
grip, I only sculpted half the shape, then created quick temporary molds to
mirror the piece. Two casts were pulled from each mold, the halves glued
together, and the gaps filled to form the final master. A similar approach was
taken for the pommels, with one wolf head of each style being sculpted, molded
and cast twice, with additional sculpting and fabrication to incorporate the
castings into the finished pommel master.
Once I had all of the hardware
finished, I checked the fit of all the pieces, filling gaps and ensuring that
everything was correctly aligned when the guard and pommel were attached to the
tang and the blade placed in the scabbard. I did a final pass on the blades to
finish the outline and sharpen up the centreline, then every piece went through
the prime, sand, repeat process until I was happy with the quality. Every part
was sanded up to 600 grit and given a final layer of black acrylic spray paint.
In order to make the blades look as realistic as possible, I wanted to cold cast
every piece, which meant starting by making lots of molds.
I stocked up on Smooth-On’s Mold
Max 40 and clayed up the hardware pieces. These were mostly straightforward
two-part box molds, though the scabbard hardware was slightly more complicated
as the scabbard needed to fit fully through the locket and partially through
the chape. The locket (above, bottom left image) had separate internal and
external mold lines defined in clay, so that one half of the mold captured the
exterior detail, while the other half became a plug to define the scabbard’s
shape.
Continued in: Part 2
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truly remarkable! well done sir!
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