[0001] This invention relates to a slicer applicable for slicing fresh and processed fish,
meat, vegetable, fruits, bakery products and the like ( hereafter described as work
).
[0002] In the prior art, several slicers were disclosed as shown in the specification of
the U.S. Pat. No.4308778 for slicing processed meat and fish and the like, but these
slicers slice said work by a pair of frames with multi parallel knife blades ( hereafter
described as blade or blades ) counter reciprocated by means of crank mechanism or
other reciprocating devices, and pusher which pushes work 2 against said blades' cutting
edge plane I (hereafter described as edge plane ) vertically or slight slantwise in
case of bread slicing seen in Fig. 23, and by passing said work through the clearaces
between blades into slices.
[0003] Also bias slicing machine was proposed in 61-79597 ( JP,A ). This bias slicer comprises
a pair of knife blade frame arranged slantwise against work pushing table plane (
hereafter described as table ) and reciprocated in the longitudinal direction of blade
by means of crank mechanism. On the other hand, work is pushed on horizontal plane,
vertically against the edge plane 1, and is sliced slantwise, because it is passed
through slantwise arranged knife blades.
[0004] In the aforementioned conventional slicer shown in said U.S. Pat., work 2 is pushed
vertically against edge plane 1 as shown in Fig. 23. And these slicers need heavy
and large crank mechanism to reciprocate heavy knife blade frame, becoming higher
in machine dimension for involving said large reciprocating blade frame,resulting
in larger complexity and higher cost inevitably, which might be accepted only in large
scale production line. And in aforementioned conventional bias slicer, although blades
are arranged slantwise, the work 2 is pushed vertically against edges plane 1, as
shown in Fig.23. And these slicers need heavy and large crank mechanism to reciprocate
heavy weight of the frame of blades, resulting not desirable high in cost.
OBJECT OF THE INVENTION
[0005] The object of this invention is to solve aforementioned difficulty and defect encountered
in the prior art slicers, in a slicer which slices work by pushing it against multi
blade shape knives equipped in parallel direction with each other and by pushing said
work through between clearances consisted of adjacent each blade, a slicer comprising
said multi blades arranges as the plane constructed by cutting edges of blades against
table, by setting the rear ends of blades at upper position above work upper surface
and the front ends thereof at lower position under the plane of table, and without
reciprocating against work, fixed at both ends of blades, and a pusher for pushing
work against blades along and on the plane of table.
[0006] And the object of this invention is to solve aforementioned difficulty and defects
in the prior art slicers, in a slicer, which slices a work slantwise by pushing said
work against multi blade shape knives equipped in parallel direction with each other
and by passing said work through between clearances consisting in adjacent each blade,
a slicer comprising said multi blades arranged as the plane constructed by cutting
edges of those blade , faces against table, each thereof slantwise positioned at each
both of rear and front end, respectively by certain length deviated in the direction
of pushing work motion from a line intersecting perpendicular to the direction thereof,
arranged slantwise against the table plane by setting the rear ends of blade at upper
position above work upper surface and the front ends thereof at lower position under
the plane of table, and without reciprocating against work, fixed at both ends of
blades, and pusher which push said work, shaped at the front surface parallely with
blade ends line . slantwise positioned at both rear and front ends thereof aforementioned.
[0007] And the object of present invention is to solve aforementioned difficulty and defects
in the prior art slicer, in a slicer, which slices a work slantwise by pushing said
work against multi blade shape knives equipped in parallel direction with each other
and by passing said work through between clearances consisted in adjacent each knife
blade, a slicer comprising said blades set slantwise against said table plane by arranging
rear ends thereof above the upper surface of work and front ends thereof under work
table plane, and knife blades arranged slantwise at the sides thereof parallely and
similarly at certain angle against the plane perpendicular to the plane constructed
by a row of the said knife blade edges facing at the direction of pushing work, and
said pusher which pushes work on the table against blades along the side plane of
said blades slantwise at certain deviated angle from longitudinal direction of blades.
[0008] Work is loaded in front of the pusher on the table and transfered towards blades,
pushed against blade edges plane, passed through clearances of parallel multi blades,
sliced in same thickness onto delivery side table plane, left on the table sliced
after pusher returns the initial position, ending slicing process at the position,
ready for next process.
[0009] And in this invention, work is loaded in front of pusher on the table, and is transfered
and pushed against multi blade cutting edges, slantwise arranged against table plane
and each thereof slantwise positioned at each both of rear and front end, respectively
by certain length deviated in the direction of pushing work motion from a line perpendicular
to the direction thereof, and is passed through clearances of parallel multi blades,
sliced slantwise in same thickness onto delivery side table plane, left on the table
sliced after pusher returns to initial position, ending slicing process, at the position
ready for next process.
[0010] Further, in the slicer of this invention, work is loaded in front of pusher on the
table and along the front surface of said pusher, and is transfered to the direction
slantwise at certain angle against the longitudinal direction of parallel blades,
which are arranged slantwise at the sides thereof parallelly and at certain angle
against the plane perpendicular to the plane constructed by a row of the said blade
edges facing downwards at the direction of the plane of the table, and is pushed against
blades through the clearances of blades, and is sliced and left on the delivery side
of table in two dimensionally slantwise sliced slices, after the pusher returns to
initial position, ready for next process.
BRIEF DESCRIPTION OF THE DRAWINGS
[0011]
Fig.1 is a plan view of a slicer for example of the embodyment of claim 1 of this
invention;
Fig.2 is a side view of the slicer of Fig.1;
Fig.3 is a cross sectional view taken along the line A-A of Fig.2;
Fig.4 is a view of part B of Fig.2 in enlarged scale;
Fig.5 is a view of part C of Fig.1 in enlarged scale;
Fig.6 is a perspective view of a sliced work by the slicer shown in Fig. 1 & Fig.2;
Fig. 7a is an explanation of angle of cutting function in pushing work against an
edge of blade;
Fig.7b is a cross section view taken along the line X-X, Y-Y of Fig. 7 for explanation;
Fig.8 is a plan view of a slicer for example of the embodyment of claim 2 of this
invention;
Fig.9 is a side view of Fig.8;
Fig.10 is a detailed drawing of part F of Fig.8;
Fig.11 is a plan view of sliced work by the slicer shown in Fig.9;
Fig.12 is a plan view of a slicer for example of the embodyment of claim 3 of this
invention;
Fig.13 is a side view of Fig.12;
Fig.14 is a cross sectional view along the line of G-G of Fig.12;
Fig.15 is a cross sectional view along the line of H-H of Fig.12;
Fig.16 is a detailed plan view of part I of Fig.13;
Fig.17a is a view from arrow M direction of Fig.12;
Fig.17b is a plan view of Fig.17a;
Fig.18a is a perspective view of sliced work by the slicer shown in Fig.12 and Fig.13;
Fig.18b is an elevation view of sliced surface of the sliced work shown in Fig.18a;
Fig.19 is a view from arrow M of Fig.12 for explaining how the work is sliced;
Fig.20 is a plan view of Fig.19;
Fig.21 is a cross sectional view along the line of N-N of Fig.19;
Fig.22 is a view from arrow 0 direction of Fig.20;
Fig.23 is a view for explanation of slicing in pushing work perpendicular direction
to a plane constructed by the blade edges, in a conventional reciprocating blade type
slicer.
GENERAL DESCRIPTION OF THE PREFERRED EMBODYMENT
[0012] Folling is the explanation of preferred embodyments of the present invention shown
in the drawings.
[0013] Before entering into above explanation, explanation referring to the principle how
a slicer of the present invention can slice sharply a work by the drawing Fig.7a and
Fig.7b. Blades 3 for slicing a work 2 are fixed without moving parallelly and at certain
clearances in plurality, are arranged slantwise against the plane of the table 4.
The angle ϑ of slant is preferrable 5°∼45°.
[0014] Now, the work 2 is pushed on the table 4 in the direction of arrow Z against a plane
3a of the knife edges of the blade 3, and is sliced during passing a path a→c of the
plane 3.
[0015] Now a study is made to understand the difference in sharpness of slicing looking
at condition in case when work 2 is pushed against the plane 3a of the knife edges
of the blade in a conventional slicer.
[0016] The line indicated in Fig. 7b is a cross sectional view along the line X-X in Fig.7a,
appears as an isosceles triangle b c c′, and the dotted line in Fig.7b is a cross
sectional view along the line Y-Y in Fig.7a, appears as an isosceles triangle a c
c′. In this case, if the length of the segment b c and a c are respectively h and
h₁, it is apparent h < h₁, so in the vertex angle β and β′ of the triangle b c c′
and a c c′ respectively. β > β′. It must be noted that the thickness of blade 3 and
blade knife edge are written thickes schmatically for easier understanding in Fig.
7b.
[0017] Therefore, as the slicing wedge angle β′ in case the work 2 is pushed against the
plane 3a in the direction of a→c slantwise is acuter and sharper than the slicing
wedge angle β in case the work 2 is pushed against the plane 3a in the direction of
b→c vertically, the forth to push the work 2 to make sharp slices is less in case
pushed in the direction of arrow Z than in case pushed in the direction of arrow W.
However, the slant angle ϑ of the blade 3 becomes smaller, the sharper the slicing
wedge angle β becomes, too small slant angle ϑ makes the work 2 have contact with
the plane 3a too long in length and time, so the slant angle ϑ is preferable about
5°∼45°.
[0018] Following is an example of an embodyment of this invention refering to claim 1 by
the drawing Fig. 1∼Fig. 5. At the beginning, explanation is made about the construction
of this embodyment by Fig.1∼Fig.5. Parallel multi blades 3 are arranged facing at
table 4 shown in Fig. 3 and Fig. 4, rear ends 36 thereof being fixed at fixing part
5, fixed at the upper position above the table 4, each of the blades 3 being inserted
in a slit 5a of said fixing part 5, the front ends 3c of blades 3 being fixed at the
lower position under the table 4, each of blades 3 being inserted in a slit 6a of
a base 6. Front means the side to which the work 2 is pushed out and rear means the
side from which the work 2 is pushed. And each blade 3 is set in a slit 5a of the
fixing part 5 respectively in tesile condition pulled by a spring 8, which hooks the
rear end 3b of the blade 3 at a pin 7, mentioned a little wider than both sides of
the blade side face, the rear end of the said spring 8 being fixed at a carved part
5b of the spring fixing part 5 in tension rewards. The part 5 is fixed on the base
6 by support pieaces 10 bolted by bolts 9 at both sides by means of fixing bolts 11.
Cover 12 is fixed to the fixing part 5 by screws 13, preventing blades 3 coming out
from the slit 5a by stopping part 12a.
[0019] On the other hand, each blade 3 is set respectively at the end of the slit 6a of
the base 6 by a pin 14, mounted a little higher projected than both side faces of
the blade 3. A pusher 15 is for pushing the work 2 to the front side against the blade
3 and can be reciprocated on the table 4, by means of a rod 17 which is arranged at
rear side in extention and held in a bearing 16, moved in reciprocating motion by
a rack 18 in connection with revolving motion of a gear 20 by a handwheel 19 which
is connected therewith. The pusher 15 has slits 15a corresponding to each of the blades
3 cut slantwise and upwards towards the rear side shown in Fig. 2.
[0020] Secondly, explanation about the function of the embodyment shown in Fig.1∼Fig.5 is
as followed. At the beginning, keep the blade 3 in the direction as the plane 3a is
towards the table 4, and insert the front end 3c of the blade into the slit 6a of
the base 6, and hook the pin 14 at the end of the slit 6a. And, insert the upper and
rear end 3b of the blade 3 into the slit 5a of the fixing part 5, and pull with tension
the blade 3 by hooking the pin 7 by the spring 8 at front end thereof, fixing the
end projected piece 8a of the spring 8 in the carved part 5b of the fixing part 5,
thus the blade 3 can be set slantwise according to the slant angle of the inclination
of the slit 5a and 6a, and under tensile condition, as shown in Fig. 2. And then,
fix the cover 12 to the fixing part 5 by the screw 13, and the upper rear ends of
the blade 3 are restricted by stopping part 12a to prevent the blade3 from coming
out.
[0021] Next, place the work 2 in front of the pusher 15 on the table 4 as shown in Fig.1
and Fig.2, pushing the work 2 against the blades 3 by stroke of the pusher 15 by means
of the rack 18, driven by the gear 20 in connection therewith, revolved by rotation
of the handwheel 19.
[0022] The work 2 is pushed against the plane 3a along the direction of arrow Z and sliced
as shown in Fig.7a, and is pushed in a front table21, shaped as the product 2′, sliced
in the shape of slice 2a having certain thickness. The product 2′ is left on the front
table 21, after the pusher returns the initial position as shown in Fig.2, by means
of reverse rotation of the handwheel 19, for preparing to start next slicing process.
[0023] Next, explanation about the construction of an embodyment referring to claim 2 shown
in Fig.8∼Fig.10 is as followed. Parallel multi blades 3 are arranged as the plane
3a of the blade edges facing downwards at table 4 shown in Fig.4, rear ends 3b thereof
being fixed at the fixing part 5, fixed at the upper position above the table 4, each
of the blade 3 being inserted in a slit 5a of said fixing part 5, the front ends 3c
of blades 3 being fixed at the lower position under the table 4, each of the blades
3 being inserted in a slit 6a of the base 6, and fixing method of the rear ends 3b
is same as shown in Fig. 4. The fixing part 5 is fixed on the base 6 by support pieces
10 bolted by bolts 9 at both sides by means of fixing bolt 11. Cover 12 is fixed to
the fixing part 5 by screws 13, preventing blades 3 coming out from the slits 5a by
stopping part 12a.
[0024] On the other hand, each blade 3 is set respectively at the end of the slit 6a of
the base 6 by a pin 14, mounted a little wider than both sides of the blade 3. A pusher
15, having the same slits 15a as shown in Fig. 1 and is for pushing the work 2 to
front side against the blade 3 and can be reciprocated on the table 4, by means of
a rod 17 which is arranged at rear side in extention and held in a bearing 16, moved
in reciprocating motion by a rack 18 in connection with revolving motion of a gear
20 by a handwheel 19 which is connected therewith.
[0025] Further, the blades 3 are parallelly arranged as the plane 3a, constructed by cutting
edges,faces against the table 4, and are also arranged slantwise by fixing the rear
end 3b at the fixing part 5 and the front end 3c at the base 6, and moreover are arranged
slantwise, deviating at the front end 3b and the rear end 3c of the blade 3 respectively,
by a certain length in the longitudinal direction along the line inclined by ϑ degrees
intersecting the line E, perpendicular to the pusher 15 stroke axis, thus the inclined
lines 22 and 23 constructed by both front and rear ends of 3b and 3c respectively.
For this reason, the fixing part 5 is formed parallely with the inclined line 22.
And also a front plane 24 of pusher 15 is formed parallelly with said inclined line
22.
[0026] Next, explanation of function referring to this embodyment shown Fig 8∼Fig.10 is
as follows. At the beginning, keep the blade 3 in the direction as the plane 3a is
towards the table 4, and insert the front end 3c of the blade into the slit 6a of
the base 6, and hook the pin 14 at the end of the slit 6a. And, insert the upper and
rear end 3b of the blade 3 into the slit 5a of the fixing part 5 as shown in Fig.4,
and pull with tension the blade 3 by hooking the pin 7 by the spring 8 at the front
end thereof, fixing the end projected piece 8a of the spring 8 in the carved part
5b of the fixing part 5, thus the blade 3 can be set slantwise according to the angle
of the inclination of the slit 5a and 6a , and under tensile condition, as shown in
Fig.9. And then,fix the cover 12 to the fixing part 5 by the screws 13, and the upper
rear ends of the blade 3 from coming out.
[0027] Next, place the work 2 in front of the pusher 15 on the table 4 slantwise along the
front plane 24 of the pusher 15 as shown in Fig.8, pushing the work 2 against the
blade 3 as placed along the front plane of the pusher 15 slantwise, deviated from
the direction the stroke axis, by means of the rack 18, driven by gear 20 in connection
with revolved by rotation of the handwheel 19. The work 2 is pushed against the plane
3a along the direction of arrow Z and sliced as shown in Fig.7a ,and is pushed onto
a front table 21, in shape of the sliced product 2˝, sliced in shape of each slice
2a having certain thickness. The produce 2˝ is left on the front table 21, after the
pusher returns to initial position as shown in Fig.8, by means of reverse rotation
of the handwheel 19, for preparing to start the next slicing process.
[0028] Next, explanation about the construction of an embodyment referring to claim 3 shown
in Fig.12∼Fig.17 is as follows. Parallel multi blades are arranged as a plane 3a of
blade edges facing downwards at a table 4, and also arranged slantwise at the side
plane thereof parallely by certain angle against the plane perpendicular to the plane
constructed by a row of the blade edges, the rear ends 3b thereof being fixed at inclined
grooves of the slit 5a′ of a fixing part 5 fixed at the upper position above the table
4, the front ends 3c of blades 3 being fixed at the lower position under the table
4, each of the blade 3 being inserted in an inclined groove of slit 6a′ of a base
6, and fixing method of the rear ends 3b with spring 8 is same as shown in Fig.4.
The fixing part 5 is fixed on the base 6 by support pieces 10 bolted by bolts 9 at
both sides by means of fixing bolt 11. Cover 12 is fixed to the fixing part 5 by screws
13, preventing blades 3 comming out from the slit 5a by stopping part 12a as shown
in Fig.4. On the other hand, each blade 3 is set respectively at the end of an inclined
groove of the slit 6a′ of the base 6 by a pin 14, mounted a little wider than both
sides of the blade 3, thus the blade 3 is fixed at an end 3c shown in Fig.17. A pusher
15 having the same slit 15a as shown in Fig.1, is for pushing the work 2 against the
blade 3 group in the direction of arrow L slantwise deviated by γ degrees from the
longitudinal direction of the blade 3 on the table 4, by means of a rod 17 which is
arranged at rear side in extention and held in a bearing 16, moved in reciprocating
motion by a rack 18 in connection with revolving motion of a gear 20 by a handwheel
19 which is connected therewith, guided by guides 25 and 25 arranged at the both sides
of the blade 3.
[0029] Next, explanation of function referring to this embodyment shown in Fig.12∼Fig.17
is as follows. At the beginning, keep the blade 3 slantwise as the plane 3a of the
blade edges, facing downwards at the table 4 and slso arranged slantwise at the side
plane thereof parallelly by certain angle against the plane perpendicular to the plane
constructed by a row of the blade edges, front ends 3 thereof being fixed by inserting
the ends 3 in inclined slit 6 , and by hooking pins 14 at the ends of the slits 6
. And insert the upper ends 3 of the blades 3 in inclined slits of the stopping part
5, simultaneously pull with tension the blade 3 by hooking the pins 7 by the spring
8 at the front ends thereof, fixing the end projected pieces 8 of the spring 8 in
the carved parts 5 of the stopping part 5, thus the blades 3 can be set slantwise
according to the angle of inclination of the slits 5 and 6 , in two dimensional slant;
longitudinal slant and blade side plane slant. And fix the cover 12 to the fixing
part 5 by the screws 13, and the upper rear ends of the blade 3 are restricted by
stopping part 12 to prevent the blade 3 from coming out.
[0030] Next, place the work 2 in front of the pusher 15 on the table 4 as shown in Fig.12
and Fig.13, pushing the work 2 against the blades by pusher guided by the guide 25
and 25, by means of stroke motion of the rack 18 and the rod 17 in connection with
gear 20 rotated by the handwheel 19. The work 2 is pushed slantwise against the blade
edge plane 3 in the direction of the arrow L, being sliced after passing the blade
3 group in shape of a slice 2 of two dimensionally slantwise sliced and of certain
thickness of an intact sliced product 2‴, pushed onto the table 21. The intact sliced
product 2‴ is left on the table 21 after the pusher 15 returns to the initial position
as shown in Fig.12 by means of reverse revolution of the handwheel 19, for preparing
the start the next slicing process.
[0031] Above-mentioned embodyments are not limited in only horizontal fixed table 4 as described.
And the pusher thereof can be operated by any kinds of power.
[0032] Now, explanation about how the sliced produced shown in Fig.18a and b is slantwise
sliced, when look from upward and also from side in the direction of pusher stroke,
namely in two dimension, is as follows referring to Fig.19∼Fig.22.
[0033] Fig. 19 is a drawing of blade 3 in elongated scale seen along the arrow M, and Fig.20
is a plan view of Fig.19 showing two blades 3. Fig.21 shows a cross sectional view
along a line N-N in Fig.19. Fig.22 is a view seen in the direction of arrow 0 in Fig.20.
Note, the direction of arrow 0 is the same direction L of the pusher stroke. Now,
suppose the blade 3 is so arranged as the blade edge line in the blade edge plane
3a intersects the table 4 plane by ϑ degrees in Fig.19, and in Fig.21, the blade 3
is so arranged as the blade edge plane d∼d′ intersects the blade side plane by φ degrees,
and the plane perpendicular to plane d∼d by (90° - φ) degrees, and the width of the
blade 3 is P, and the width of the blade 3 seen from the side is P₁,
P₁ = P × sin φ ① And if the width of blade 3 in plan is P₂,
P₂ = P × cos φ ②
[0034] In Fig.19 a horizontal plane rises by H₁ in hight from the table 4 intersects the
blade cutting edge and blade back side edge at respectively point a′, point b′, then,
in Fig.20, point a₁′, b′ and a₂′, b₂′ are the points where plane in H₁ hight intersects
said blade cutting edge and back side edge respectively. Then, the cross section of
blade 3 slong the horizontal plane H₁ is shown as 3′ in Fig.20, and the angle γ which
the direction a₁′- e along the length of blade 3 makes with the direction of cross
section 3′ is the same angle γ which the line in arrow L direction makes with the
line in arrow K direction in Fig.12.
[0035] Here, given the length of ( a′∼b′) in Fig.19 is ( a′∼ b′)E in Fig.20
γ = tan⁻¹ { P / ( a′∼b′)E} ③ ( a′∼b′)E = P / sinϑ
from equation ①

In fig.20, as the angle the longitudinal direction of the blade 3 makes with the
line a₁′ and a₂′ where the cutting edges thereof is right angle, then if the front
surface 26 in Fig.12 of the pusher 15 is parallel with the line a₁′∼a₂′, and the direction
of stroke of the pusher 15 is in the direction of arrow 0, along the direction deviated
by γ degrees from the longitudinal direction of the blade 3, it is clear that the
work can be sliced slantwise by γ degrees in plan view.
[0036] And in Fig.19, a horizontal plane rises by H₂ in hight from the table 4 intersects
the blade cutting edge and blade back side edge at respectively point g and i, a segment
g∼i is parallel with a′∼b′, and slantwise by γ degrees from the longitudinal direction
of the blade 3. And in Fig.20, a line m∼g ( the slit 6a′) where the blade 3 intersects
the plane of the table 4 is also parallel with the segment g∼1, and a₁′ b′.
[0037] And in Fig.19, the vertical lines including a′ and g intersects the plane of the
table 4 at point k and l, then
length of k∼l ={(H₁-H₂)/tan ϑ} ⑥ length of k∼m = H₁ / tan ϑ ⑦ Therefore,
in Fig.20
from ⑥ k-l = {(H₁-H₂)/tan ϑ}× sin γ ⑧
from ⑦ k-m = ( H₁/tan ϑ) × sin γ ⑨
from ⑧ tan δ = ( H₁-H₂)/{( H₁-H₂)/tanϑ}×sinγ tan ϑ/sinγ ⑩
from ⑨ tan δ = H₁/( H₁/tan ϑ )× sin γ = tan ϑ/sin γ ⑪
[0038] By analysising the equations ⑤ and ⑪ , it appears clear that the smaller the angle
φ ( it means larger inclination of the side plane of the blade against the plane perpendicular
to the horizontal plane and includes the cutting edge of the blade ), the larger the
angle γ in another word, the larger the degree of inclination of slice face in plan
view of the work, and the larger the angle δ, namely the larger the degree of the
inclination of slice face in side view of the work.
[0039] Next, in Fig.22, suppose that the pusher, the front face 26 thereof being parallel
to the plane constructed by the two perpendiculars to the horizontal plane from a₁′
and a₂′ in Fig.20, is driven to slice the work 2 in the direction of the arrow 0 in
Fig.20 ( the direction of the arrow L in Fig.12) , and the hight of the work is H₁,
then, during pushing motion, the surface of the work 2 gets into contact with the
edge line along a₁′→b′, a₂′→b₂′ and by further pushing motion, the lower part of the
work gets into contact with the edge line along the line a₁′∼g and a₂′∼g′, finally
the work is parallelly sliced along the line a₁′∼b′ and a₂′∼b₂′ in Fig.20. And the
part of the work 2, at H₂ in hight, gets into contact with the edge line at point
g and g′ and further,the lower parts get into contact with the edge line along the
line g∼m and g′∼m′, finishing slicing at δ degree inclination in side view of the
work.
[0040] And the relation among the angles, ϑ ( inclination angle of the blade in its longitudinal
direction ), φ ( inclination angle of the blade in its lateral direction), γ{angle
of pushing direction: tan⁻¹ ) sinϑ/ tanφ)}, and δ ( inclination angle of slicing in
the vertical plane of the work ) is shown by an example of actual calculation as follows
:
Table 1
ϑ° |
φ° |
γ° |
δ° |
13 |
30 |
21,29 |
32,45 |
13 |
45 |
12,68 |
46,45 |
13 |
50 |
10,69 |
51,22 |
13 |
60 |
7,399 |
60,84 |
13 |
70 |
4,68 |
70,54 |
EFFECT OF THIS INVENTION
[0041] As above explained. in the slicer of this invention, which comprises the blades,
the edge plane of which facing downwards, fixing slantwise and not reciprocated, angle
of cutting function, by which the work is pushed against the blades on the table,
is far more sharper than in case the work is pushed against the blades in the direction
perpendicular to the edge plane. By this reason, the slicer of this invention can
slice the work into sharper, more beautiful and nicer slices with less forth required.
Moreover this invention can provide cheaper and less trouble slicer, than conventional
ones, because of its simple and compact structure, and so it is more acceptable to
small scale works.
[0042] And the slicer of this invention is constructed by the blades arranged as the plane
constructed by cutting edges of said blades faces against the table and is fixed without
reciprocation, and each thereof is slantwise positioned at each both of rear and front
end respectively by certain length deviated in the direction of pushing work motion
from a vertical line intersecting the direction axis of pushing, and by the pusher,
shaped at the front surface parallelly with blade ends line, slantwise positioned
at both rear and front ends thereof, and so if the work is put on the table and in
front of the pusher along the pusher front surface and is pushed in the direction
of pushing axis, the work is easily sliced in certain thickness slantwise. In this
case, too, angle of cutting function of the blade edge to the work is far more sharper
than the angle of cutting function of the blade edge in a conventional slicer where
the work is pushed against blade edges vertically.
[0043] And. by the slicer of this invention, which comprises the blades, arranged slantwise
in the direction from rear to front, and also slantwise at the side plane parallelly
by certain angle against the plane perpendicular to the plane constructed by a row
of the blade edges facing downwards, and the pusher which pushes the work in the direction
deviated at certain angle from the longitudinal direction of the blades, the work
is sliced by one stroke of slicing, by pushing said work against the row of blades,
into two dimensionally slantwise sliced slicer.