Year: 1897

page_text: Date of App.cation, 12th Mar., 1897-Accepted, 24th Apr., 1897
We, JOHN JAMES HEYS and MAURICE VINCENT BRESNAHAN, Manu-
facturers, both of 507 Washington Street, Lynn, County of Essex and State of
Massachusetts, United States of America, do hereby declare the nature of this
invention and in what manner the same is to be performed, to be particularly
described and ascertained in and by the following statement :--
This invention has relation to machines for levelling or beating out the soles of
boots and shoes, and especially to that class of machines in which the last and
form are reciprocated to successively press the entire length of the sole. Heretofore,
machines of this general class have been so constructed that the last and the mold
or form were each mounted on an oscillatory arm to which power was applied to
cause them to operate upon the sole placed between them. Such machines,
however, were objectionable because of their liability to tear out and break the
stitches in a boot or shoe, especially where a comparatively thick sole was. being
operated on, because of the fact that the radii of the two circles through arcs of
which the molds and surfaces of the soles upon the lasts moved, were necessarily
variable, so that the surface of the sole would move more rapidly than the surfaces
opposing it.
Again, it has been found that where a great pressure is suddenly put upon the
sole by machines of this class, as previously constructed, the leather is bruised and
discolored, and its marketable qualities are decreased and detracted from, whereas,
by compressing the leather lightly a number of times the sole may be leveled to
the shape of the last without causing such discolorations, and at the same time
giving it the appearance of having been beaten out by hand besides prolonging its
life, and thereby enhancing its value.
Hence, the object of this invention is to obviate the objectionable features above
recited by constructing the machine in such a way as to prevent any tearing out of
the stitches; and also to prevent the bruising or discoloring of the sole, as above
set forth; and to these ends the invention consists in improvements in machines of
this character which are illustrated upon the drawings, and which we will now
proceed to describe in detail, and then point out in the claims.
Reference is to be had to the accompanying drawings and to the letters and
figures marked thereon, forming a part of this specification, the same letters
designating the same parts or features, as the case may be, wherever they occur.
Of the drawings-
Figure 1 is a front elevation of a machine embodying our invention.
Figure 2 is a side elevation of the same.
Figure 3 is a vertical longitudinal section of the machine taken through one set
of the molds and lasts.
Figure 4 is a plan view of the machine partially in section, which section is taken
on the line 4-4 of Fig. 1.
Figure 5 shows in detail the gear for actuating the mold carrier, and the last
carrying slide, and the means for supporting the same, there also being shown a
small portion of the table.
Figure 6 represents in section one of the mold carriers with a form secured
thereon.

page_text: Figure 7 illustrates another form of our invention in which the last is reciprocated
a predetermined number of times and then brought forward to have the levelled
sole replaced by a new one.
Figure 8 illustrates still another form of the invention to be employed in
connection with the wheel having a cam groove as shown in Fig. 7.
Figures 9 and 10 illustrate the last as being mounted upon links arranged to
insure its moving in a straight line horizontally.
Figure 11 illustrates still another form of our invention to be employed for
reciprocating the last.
In constructing a beating-out or sole leveling machine of the character herein-
before referred to, it is essential that the mold and the last should press the sole
between them with a moderate though yielding pressure for a number of times,
and hence, one of the said parts must be so mounted as to yield and, as said before,
where two oscillating arms are employed upon which the mold and the last are
mounted, the varying thicknesses of the soles to be leveled cause the variation of
the radii of the arcs through which contiguous surfaces of the sole and the mold
move, causing that surface of the sole which is pressed against the surface of
the mold to move faster than the last mentioned surface, with the result that the
sole is strained upon the boot or shoe to such an extent as to break the stitches
which bind it to the welt, or to the insole.
arms or carriers
Therefore, in our machine we employ, instead of two oscillating
for the mold and last, a single oscillating arm with which a rectilinearly acting or
reciprocating slide co-acts, and we arrange the gearing in such way that the
oscillating arm and the slide travel at precisely the same rate of speed in either
direction.
The slide is arranged to reciprocate on a yielding table, and hence, it will be
seen that the operation of the machine will be precisely the same upon soles of
different thicknesses, and there will be no tendency to strain the sole longitudinally
of the last or the insole, as was found in machines as previously constructed.
Again, in those machines employing two co-acting mold and last carriers which
oscillate about opposing pivots, the placing of a thick sole between the last and
inold causes the surface of the sole which is to be pressed against the mold to be
projected radially of the pivot of the last carrier, and therefore throws it away
from the vertical lines of the mold to such an extent that when the carriers are
oscillated the sole is pressed against the mold in such a way that it is slipped along
the mold. in the longitudinal lines thereof.
In other words, the curved face of the mold is falsely placed relatively to the
face of the sole to be pressed, in all cases where a thicker or thinner sole than the
one for which the last and mold were fitted, is pressed.
Whereas, in our machine, the last is mounted to slide tangentially of the are of
movement of the mold, and is depressible only in lines transverse to the said
tangential lines, whereby the face of the sole, irrespective of the thickness of the
sole, or height of the last, is always presented properly and at exactly the same
point on the mold.
And, moreover, we provide for having the mold and last compress the sole a
predetermined number of times with a moderate pressure, instead of compressing
it by one reciprocation of the carrier under great pressure, since we may thus
avoid any discoloration and bruising of the sole caused by violently compressing it.
Referring to the drawings, the frame of the machine consists of two side
standards a of the shape shown in Figs. 2 and 3, and suitably connected by cross-
heads a', a, and tie rods a³, a'. Vertical rods a³, a³ and as are secured in the
cross-head a', and are secured at their lower ends, the central one a' in the cross-
head a² and the outer ones a' in the standards a, as well as in the ends of the
cross-head. As the two halves of the machine are alike, I shall describe only one
of them, but the description may be applied also to the other half.
Depending from the cross-head a' are two brackets a' in which is journaled the
pivot-shaft of the mold carrier which consists of an arm having a segment

page_text: plate 6 at its lower end, which plate is formed at one side with a segmental rack 6³.
Preferably, the arm, the plate, and the rack are all cast in one piece. The
segmental plate is formed with a recess to receive a mold or form 66 secured
therein by screws 6 so that the said mold or form may be removed, and another of
a different shape or different size may be secured in its stead. Below the mold carrier
is the table c having a bowed portion c¹ which rests upon a strong yielding spring d
which in turn is supported upon a disk d¹ having a socket d to receive it. The
said disk is swiveled upon a screw d³ which passes loosely through an aperture in
the cross-head a², there being a nut d in threaded engagement with said serew and
inserted in an aperture d³ in the cross-head a*, and by means of which the screw,
the spring and the table may be adjusted vertically.
The table is formed with an annular flange a³ (see Fig. 5) through which the rod a³
passes, and is provided at its opposite sides with a semi-cylindrical aperture
and a guide de co-acting with the rod a so that the table is guided in its vertical
movements. Its upper face is formed with a groove d² to receive the dove-tailed
tongue of a slide or last carrier e upon which the last f is mounted, as shown in
Fig. 3.
The slide e is formed on its outer edge into a straight rack e corresponding in
number of teeth to the segmental rack 63 which is located directly above it.
Mounted loosely upon the vertical rod a' is a sleeve 9 held in place by a collar gl
piuned to the rod and formed at its ends into bevel gears g2g having the same
number of teeth, and meshing with the segmental rack and the straight rack
respectively.
Thus, it will be seen that if the slide or last carrier be reciprocated, it will cause
the simultaneous oscillation of the mold carrier.
We will now proceed to describe the mechanism which we employ for recipro-
cating the slide a predetermined number of times and stopping it when it is in its
forward position. h is a longitudinally arranged main power shaft (see Fig. 3)
supported in a bearing h¹ on one of the side standards at its front end, and a
bracket at its rear end.
Upon the projecting rear end of the shaft is loosely mounted a band-wheel h³,
which is continuously revolving, and from which the power may be transferred by
clutch mechanism of any suitable kind.
Preferably, we employ a disk h, and mechanism (not shown) which is operated
by a pivoted lever having its lower end resting upon a grooved collar h. The
collar is adapted to be shifted by a bell-crank-lever having an arm i with a yoke
fitting in a groove therein, and also having an arm ¹ which is extended to the front
of the machine and is provided with a roughened part 2, which may be depressed
by the foot. The lever is pivoted upon the tie-rod a³, and is normally held upward
by a strong spring i³. When the lever is depressed, as shown in Fig. 3, the collar h
lifts the dog or lever hand connects the band-wheel through the internal
mechanism (not shown) with the disk h. But when the lever is elevated, as
illustrated in Fig. 2, the band-wheel and the shaft are disconnected.
The art of the lever is formed with a brake 13 which, when the lever is
elevated, presses against the disk and immediately locks it against movement.
The belt which is employed for imparting power to the continuously driven band-
wheels passes around and under one of the said wheels ³, then up and over an
idler wheel k, journaled upon a bracket k¹, connected to the side frame and located
centrally of the machine, and then passes down under the other band-wheel h³.
The shaft his formed with a worm h³ which meshes with a worm wheel mounted
upon a shaft, journaled in a bearing in the said frame and having a pitman 1³
The
which is connected by a pitman rod with a depending lug e on the slide e.
said luge projects down through a slot formed in the table c, which slot extends
to a point near the front end thereof.
Now it will be seen that as the shaft h rotates it causes the rotation of worm
wheel l, and the consequent reciprocation of the last slide or last carrier which, in
turn, causes the oscillation of the mold carrier so that the old and last are

page_text: successively pressed together from the heel end of the last to the toe, and back again.
The shaft of the worm wheel is formed into pinion, the teeth of which
intermesh with straight spur gear wheel 1, mounted upon a stud shaft, journaled in
the frame, and which is of such a size that it is revolved once for every three
revolutions of the worm wheel 1. The said gear wheel is provided with an
inwardly projecting pin (see Fig. 1) which will strike against the upper end of a
trip-lever m, pivoted at m¹ on one of the side standards of the machine, and
disengage the lower end thereof from an ear on the arın i¹ of the foot lever.
Normally the trip lever is held in engagement with the ear by means of a spring m²,
so as to hold the lever depressed and the band-wheel connected with the shaft h,
but when the pin on the gear wheel i strikes the end of the trip lever m and
throws the said upper end forward, it disengages the lower end thereof from the
lever and allows it to rise so as to disconnect the band-wheel from the shaft, and
apply the brake.
The parts are so arranged and timed that when the pin acts on the trip lever to
disconnect the power from the shaft h and stop the movement of the mold and last
carriers, said last carrier is at the forward extreme of its movement.
The operation of the machine is as follows:
The operator places upon the last, for instance on the right hand side of the
machine shown in Fig. 1, a boot or shoe, the sole of which is to be beaten out or
leveled, and depresses the foot lever on that side of the machine. When the said
lever is depressed, the trip lever m engages the lug thereon and holds the said
lever down and thereby causes the clutch mechanisin to connect the band-wheel h³
with the shaft h. Then the worm wheel is revolved three times so as to reciprocate
the last and mold carriers, the same number of times. As this reciprocation is
going on, the operator is placing upon the other last on the left-hand side of the
machine a boot or shoe, the sole of which is to be leveled, and as he is about to
depress the lever on the left-hand side to start the mechanism in motion, the worm
wheel on the right hand side of the machine has completed its three revolutions so
as to cause the stop in the pin 7 to engage the trip lever and disconnect the power
from the shaft h, whereupon the last is stopped at the extreme forward end of its
motion. He then removes the boot from the last which has stopped moving and
places another one upon it while the last and mold carriers are in this position.
Thus it will be seen that the operator will just have sufficient time to place
upou one last a boot or shoe while the sole is being leveled by the other last
and mold.
While we have found that the sole is best beaten out when the carriers
reciprocate the number of times set forth, it will be understood that we do not
limit ourselves to having the mold and last carrier reciprocated three times before
they are stopped, as they may be reciprocated any predetermined number of times,
since the number of movement may be varied by changing the size of the
wheel 16. Nor do we limit ourselves to the devices which we have just described
for reciprocating the last carrier rectilinearly, or tangentially to the arc of
movement of the mold carrier, as this may be accomplished by a number of devices.
In Fig. 7, we have shown mechanism for accomplishing this purpose which
we prefer for some classes of work. In this figure, the slide n is connected by a
rod with the upper end of a two-armed lever n pivoted at n³. The lower end of
the lever n is provided with a pin n projecting into a cam-track n' which has
three rises 2, 3, and 4, respectively, and formed in a disk n', the rises 4 being
considerably longer radially of the disks than the rises 2 and 3.
The disk n' takes the place of the worm wheel and the mechanism is arranged
to stop the radiation of the disk n' when the pin n is in the outer end of
the rise 4, so that the last is forced at the end of its movement to the
extreme forward end of the machine and further forward than it is during the
other parts of its movement. Instead of employing the connecting rod n for
reciprocating the slide, it may be accomplished by means of a segmental rack o
connected to the slide.

page_text: In Fig. 9, the last carrier is pivoted to two links p pl, the link p being connected
by a pivot to a link p pivoted to a tie-rod p³, the lower end of the link pl being
connected by links p p with another tie-rod or stationary pivot p and the said
lower end is also provided with a roller or pin projecting into a horizontal slotted
guide p².
ps indicates the pitman rod pivoted to the link p' and which oscillates the links pp¹
about their movable pivots so as to cause the last carrier to slide back and forth in
the same plane.
In Fig. 10, the last carrier is pivoted upon the upper ends of two links q q¹
having their lower ends pivoted to the cross brace q² resting upon an eccentric q³
keyed to the shaft qt. The links q q¹ are oscillated by the pitman rad q and the
shaft is so timed that as the links are oscillated, it raises and lowers them to
compensate for their variation in the distance between the last carrier and the cross
piece and thereby maintain the last carrier in the same horizontal plane
throughout its reciprocation.
In Fig. 11, the last carrier is reciprocated by a screw shaft r, passing loosely
through the ends of the arms between which are held two loose pulleys ²,
and a pulley internally threaded to receive the threads on the screw-shaft r. The
pulleys are driven in opposite directions by belts 67 respectively, and the said
belts are shifted from the loose pulley to the fast pulley by devices operated by one
of the movable parts not herein shown.
The front end of the screw shaft is connected to the last carrier by a pivoted link
so that the last carrier may yield downwardly to permit the insertion of a thicker
sole between the last and the mold.
In addition to the features pointed out, we employ a guard, which is auto-
matically moved adjacent to that set of carriers which is operating, to prevent
the operator from getting any part of his person caught between this mold and last.
It consists of a sleeve t having a wing or plate t' and mounted loosely upon the rod a
and held between two collars. The sleeve is provided with two arms t³ t'arranged
on opposite sides thereof, at an angle to each other, and each adapted to be
struck by a lug to or to on the last carriers e e.
By examining Fig. 4, it will be seen that when the slide or carrier e on the
right hand side of the machine has struck the arm t* and thrown the guard in front
of it, the other set of carriers being in a state of rest, the arm 3 is now in position
to be struck by the lug to on the last carrier on the left-hand side of the machine,
as soon as it starts to operate, and as in practice one set of carriers comes to
a state of rest just before the other set begins its operations, the set on the right
hand side of the machine will cease reciprocating before the slide or last carrier
begins its backward movement and swings the guard in front thereof.
Other changes may be made in the construction of the machine without departing
from the spirit and scope of this invention, which comprehends a mold carrier and
a co-acting last carrier, one oscillated in an arc of a circle, and the other reciprocating
rectilinearly at a tangent to said arc, together with means for moving them
simultaneously.
Having now particularly described and ascertained the nature of the said inven-
tion, and in what manner the same is to be performed, we declare that what we
claim is :
1. In combination, an oscillatory mold carrier, a co-acting last carrier and means
for causing their actuation to level a sole, said last carrier being mounted to yield
only in parallel lines at right angles to the tangential plane of the arc of movement
of the mold carrier whereby the sole on the last is properly positioned against the
mold, irrespective of its thickness.
2. In a sole leveling or beating out machine, in combination, a mold carrier,
a cc-acting last carrier, one of said carriers oscillating through the arc of a
circle and the other reciprocating tangentially to said circle, and means for
operating them.

page_text: 3. In a sole leveling or beating out machine, in combination, a pivoted mold
"carrier, and a rectilinearly reciprocating co-acting last carrier, and means for
operating the said carriers simultaneously.
4. In a sole leveling or beating out machine, in combination, a mold carrier
pivoted to oscillate about a center, a rectilinearly reciprocating co-acting last
carrier, a yielding table upon which said last carrier is mounted, and means for
simultaneously operating the said carriers.
5. In a sole leveling or beating out machine in combination, a mold carrier
pivoted to oscillate about a center, a rectilinearly reciprocating co-acting last
carrier, a yielding table upon which said last carrier is mounted, means for
simultaneously operating the said carriers, and means for adjusting said table
vertically.
6. In a sole leveling or beating out machine, in combination, a pivoted mold
carrier, and a rectilinearly reciprocating co-acting last carrier, said last carrier
being yieldingly supported, and means for operating the said carrier.
7. In a sole leveling or beating out machine in combination, a mold carrier,
consisting of a pivoted oscillatory arm having provisions for the reception of a
mold, a co-acting rectilinearly reciprocating last carrier having provisions to
receive a last, each of said carriers having a toothed rack, gearing intermeshing
with said racks for causing said carriers to move in unison, and means for imparting
power to said carriers to actuate them.
8. In a sole leveling or beating out machine in combination, an oscillating mold
carrier having provisions to receive a mold, a co-acting rectilinearly reciprocatory
sliding carrier having provisions to receive a last, means for causing said carriers
to move in unison, a table on which said sliding carrier is adapted to reciprocate,
and means for imparting power to said carriers to actuate them.
9. In a scle leveling or beating out machine, in combination, an oscillatory
mold carrier having provisions to receive a mold, a co-acting rectilinearly
reciprocatory sliding carrier having provisions to receive a last, means for causing
said carriers to move in unison, a table on which said sliding carrier is adapted
to reciprocate, means for yieldingly supporting said table, and means for actuating
said carriers.
10. In a sole leveling or beating out machine, in combination, an oscillatory
mold carrier having provisions to receive a mold, a co-acting rectilinearly
reciprocating sliding carrier having provisions to receive a last, means for causing
said carriers to move in unison, a table on which said sliding carrier is adapted to
reciprocate, means for yieldingly supporting said table, devices for adjusting the
last said means, and means for actuating the carriers.
11. In a sole leveling or beating out machine, in combination, a mold carrier
baving provisions for the reception of a mold, a co-acting last carrier having
provisions for the reception of a last, means for causing said carriers to operate
in unison, means for horizontally reciprocating said carriers, and means for causing
the carriers to cease operating when they have been reciprocated a predetermined
number of times.
12. In a sole leveling or beating out machine in combination, a mold carrier
having provisions for the reception of a mold, a co-acting last carrier having
provisions for the reception of a last, and means for reciprocating said carriers
horizontally a predetermined number of times and then bringing them to a state
of rest.
13. In a sole leveling or beating out machine, in combination, a mold carrier
having provisions for the reception of a last, means for causing said carriers to
operate in unison, means for horizontally reciprocating said carriers a prede-
termined number of times, and bringing said carriers to a state of rest at a position
of clearance.
14. In a sole leveling or beating out machine in combination, an oscillatory
mold carrier having provisions for the reception of a mold, a co-acting rectilinearly
reciprocatory last carrier having provisions for the reception of a last, means for

page_text: unison,
and means
ΙΟΥ
connecting said carriers whereby they operate in
reciprocating said last carrier and with it the mold carrier, a predetermined.
number of times.
15. In a sole leveling or beating out machine, in combination, an oscillatory
mold carrier having provisions for the reception of a mold, a co-acting rectilinearly
reciprocatory last carrier having provisions for the reception of a last, means for
connecting said carriers whereby they operate in unison, means for reciprocating
said last carrier, and means for bringing said carrier to a state of rest after a
predetermined number of reciprocations.
16. In a sole leveling or beating out machine in combination, an oscillatory
mold carrier having provisions to receive a mold, and also provided with a seginental
rack, a co-acting rectilinearly reciprocatory last carrier having provisions to receive.
a last, and also having a straight rack, gearing consisting of a sleeve with teeth
intermeshing with the segmental rack and teeth intermeshing with the straight.
rack for causing the carriers to operate in unison, and means for operating said
carriers comprising a wheel having a pitman, and a pitman rod connected to one of"
the carriers.
17. In a sole leveling or beating out machine, in combination, a mold carrier
having provisions to receive a mold, a co-acting last carrier having provisions for
receiving a last, continuously moving power devices, means adapted to be actuatel
thereby for reciprocating the said carrier longitudinally of the sole of the boot or
shoe operated upon, and means for disconnecting the last said means for the power
devices to bring the carriers to a state of rest after said carriers have reciprocated.
a predetermined number of times.
18. In a sole leveling or beating out machine in combination, a mold carrier
having provision to receive a mold, a co-acting last carrier having provisions for
receiving a last, a power shaft connected with said carriers for causing their
reciprocation in lines transverse thereof, a continuously rotating wheel loose
relatively to said shaft for intermittingly rotating it, clutches interposed between.
said wheel and said shaft, a lever for operating the clutches, and means for-
automatically causing said lever to shift the clutches, whereby the shaft and wheel
are disconnected after said shaft has made a predetermined number of rotations.
19. In a sole leveling or beating out machine in combination, a mold carrier
having provision to receive a mold, a co-acting last carrier having provisions for
receiving a last, a power shaft connected with said carriers for causing their
reciprocation in lines transverse thereof, a continuously rotating wheel loose
relatively to the said shaft for imparting motion thereto, a clutch between said
wheel and said shaft, and means interposed between the shaft and the clutch for
disconnecting them after the carriers have made a predetermined number of
reciprocations.
20. In a sole leveling or beating out machine, in combination, a mold carrier
having provision to receive a mold, a co-acting last carrier having provisions for
receiving a last, a wheel connected to said carriers for causing their reciprocation
in lines transverse thereof, a clutch for imparting power from a continuously
operating power device to the said wheel, means for shifting the said clutch to
disconnect said wheel from the power device, a trip for operating the said clutch
shifting means and mechanism actuated by said wheel for operating the trip after
the said carriers have been reciprocated a predetermined number of times.
21. In a sole leveling or beating out machine in combination, a mold carrier
having provision to receive a mold, a co-acting last carrier having provisions for
receiving a last, a wheel connected to said carriers for causing their reciprocation
in lines transverse thereof, a clutch for imparting power from a continuously
operating power device to the said wheel, a foot lever for shifting said clutch, a trip.
for holding said lever in position to cause the clutch to connect the said wheel with
the power device, and mechanism for actuating the trip after the said carriers have
completed a predetermined number of reciprocations.
22. In a sole leveling or beating out machine in combination, two sets of mold.

page_text: and last carriers, movable in planes transverse thereof, each set consisting of a mold
carrier having provisions to receive a mold, and a co-acting last carrier having
provisions to receive a last, and means for actuating each set of carriers a
predetermined number of times, whereby an operator may place the work upon one
last while the other set of carriers is operating.
23. In a sole leveling or beating out machine, in combination, two sets of mold
and last carriers, movable in planes transverse thereof, each set consisting of a
mold carrier having provisions to receive a mold, and a co-acting last carrier having
provisions to receive a last, means for actuating each set of carriers a predetermined
number of times, whereby an operator may place the work upon one last while the
other set of carriers is operating, and means under the control of the operator for
starting said carriers from a state of rest.
24. In a sole leveling or beating out machine in combination, two sets of
independently actuated mold and last carriers, movable in planes transverse thereof,
each set consisting of a mold carrier having provisions to receive a mold, and
oscillating in the arc of a circle, and a co-acting last carrier having provisions to
receive a last, and movable in a plane tangential to the are of a circle, and means
under the control of the operator for automatically reciprocating each set of said
carriers a predetermined number of times.
25. In a sole leveling or beating out machine, in combination, a mold carrier
having provisions to receive a mold, a last carrier having provisions to receive a
last, means for reciprocating said carriers through a predetermined space for a
predetermined number of times, and then reciprocating said carrier through
a greater space, to a position of clearance, and means for automatically bringing
said carrier to a state of rest.
26. In a sole leveling or beating out machine, in combination, two sets of
independently actuated mold and last carriers, movable in planes transverse thereof,
each set consisting of a mold carrier having provisions to receive a mold and a
co-acting last carrier having provisions to receive a last, means under the control
of the operator for actuating said sets alternately, and a guard moved automatically
adjacent the operating set of carriers.
27. In a sole leveling or beating out machine, in combination, two sets of
independently actuated mold and last carriers, movable in planes transverse thereof,
each set consisting of a mold carrier having provisions to receive a last and a
co-acting last carrier having provisions to receive a last, means under the control
of the operator for actuating. said sets alternately, and a guard operated
automatically by each set of carriers alternately for moving it adjacent the
operating set.
Dashi och Jn of 1907
JOHN JAMES HEYS.
MAURICE VINCENT BRESNAHAN
Haseltine, Lake & Co.,
45 Southampton Buildings, London, W.C., Agents for the Applicants.