FIELD OF THE INVENTION
[0001] The present invention relates to a magnetic insole arrangement and a magnetic insole
kit.
BACKGROUND OF THE INVENTION
[0002] When riding, having the correct position of the boot in relation to the stirrup is
important. If the boot is incorrectly positioned, the rider may have difficulties
communicating with the horse, the boot may slip from the stirrup, or the rider might
injure him-/herself due to a non-ergonomic transmittal of forces from the stirrup
to the foot of the rider. As each individual horse and rider combination is unique,
with their own specific weight distribution, gait, and relative position to each other,
determining the optimal position of the rider's boot in relation to the stirrup is
difficult. Furthermore, personal preferences of the rider is also a factor in determining
this position.
[0003] When designing a stirrup, one key aspect is safety. If a rider gets caught in the
stirrup when falling off the horse, serious injury is likely to follow. In the worst
case, such a fall might even be fatal.
[0004] For this purpose, magnetic stirrups are commonly available, as these allow safe positioning
of the rider's boots on the stirrups while simultaneously increasing the grip between
the rider's boots and the stirrup, which lowers the risk of the rider's foot slipping
through and getting caught in the stirrups. However, finding a magnetic stirrup that
matches the rider's preferred positioning of their magnetic boots in relation to the
stirrup may be difficult and may require a significant amount of trial-and-error.
SUMMARY OF THE INVENTION
[0005] It is an object of the present invention to alleviate at least some of the mentioned
drawbacks of the prior art and to provide a magnetic insole arrangement that allows
a rider to configure the positioning of the magnetic member in relation to the insole,
thus adapting the position of the boot in relation to a stirrup. This is cost efficient,
as the rider will only ever have to buy one magnetic insole arrangement, instead of
buying several magnetic stirrup/insole arrangements in order to find one that correctly
matches the preferred boot positioning of the rider. This and other objects, which
will become apparent in the following, are accomplished by a magnetic stirrup arrangement
and a magnetic stirrup kit as defined in the accompanying independent claims.
[0006] The term exemplary should in this application be understood as serving as an example,
instance or illustration.
[0007] The present invention is at least partially based on the realisation that by providing
means for adapting the position and size of the magnet positioning space in a magnetic
stirrup arrangement, a higher degree of user flexibility and configurability is achieved.
This is beneficial since it allows the rider to quickly arrive at a stirrup arrangement
that matches the preferred positioning of their boots in relation to the stirrup.
[0008] According to the first aspect of the present invention, a magnetic insole kit is
provided. The magnetic insole kit comprises an insole member, at least one magnetic
member, a first positioning unit, and a second positioning unit. The insole member
and the first positioning unit jointly defines a first magnet positioning space. The
insole member and the second positioning unit jointly defines a second magnet positioning
space that is different from the first magnet positioning space, and the first magnet
positioning space and the second magnet positioning space are arranged to receive
the at least one magnetic member.
[0009] The first and the second magnet positioning spaces are different in size, orientation,
and/or shape. Thus, by reassembling the magnetic insole arrangement and changing from
a first positioning unit to a second positioning unit, a user may adapt the positioning
of the at least one magnetic member. This enables a user to adapt the positioning
of his or her feet in relation to a magnetic stirrup with which the magnetic insole
arrangement is to be used.
[0010] According to one exemplary embodiment, the magnetic member is a permanent magnet
or an electromagnet.
[0011] According to one exemplary embodiment, said insole member comprises a cavity, and
said cavity is arranged to receive either of said first positioning unit and said
second positioning unit.
[0012] The cavity is dimensioned such that the first and second positioning units may be
fitted therein. For example, they may be press fitted into the cavity, or they may
be fitted with Velcro, adhesives or other connection means. Thus, a secure and reliable
connection between the positioning units and the insole member is achieved.
[0013] According to at least one exemplary embodiment, the cavity is arranged to receive
said first positioning unit and said second positioning unit. This means that the
first positioning unit and the second positioning unit may both be received by the
cavity and fitted therein, however not simultaneously. Either one of the two substantially
fills out the entire cavity when fitted therein.
[0014] According to at least one exemplary embodiment, the first and the second magnet positioning
spaces both have a smaller volume than said cavity. This enables a magnetic member
to be fitted to either one of the positioning units such that a secure connection
therebetween is achieved, while the positioning units are fitted to the insole member.
[0015] According to one exemplary embodiment, said insole member comprises an insole base
and at least one cover member. The cover member may either be made from the same material
as the insole base, in order to provide a homogenous feel to the insole member, or
from a different material having desired properties such as moisture transportation
ability, breathability, or comfort enhancing features. According to one exemplary
embodiment, the cover member is located on the upper side of the insole member, such
that a user's foot may rest thereupon.
[0016] According to one exemplary embodiment, said cavity is formed in said insole base,
and said at least one cover member covers at least one side of said cavity. Thus,
the cover member of the insole member functions to keep the positioning unit and the
magnetic member in place inside the cavity.
[0017] According to one exemplary embodiment, said insole member comprises an insole base,
an upper cover member, and a lower cover member, and said cavity is formed in said
insole base, and said upper and lower cover members cover a respective side of said
cavity. By having a sandwich structure as described above, the magnetic member and
the positioning unit in which it is fitted may be kept securely in place between the
two cover members. Furthermore, composite material properties may be achieved by alternating
layers of different properties, such as softness, breathability, viscoelasticity,
and so on. According to one exemplary embodiment, the lower cover member partially
covers the cavity of the insole member.
[0018] According to one exemplary embodiment, said cavity of said insole member is open
from one side. Thus, the positioning unit and the magnetic member may be inserted
from this side allowing quick and easy assembly of the magnetic insole arrangement.
When the magnetic insole arrangement is arranged inside a shoe, the sides of said
shoe will help keep the positioning unit and the magnetic member in place.
[0019] According to one exemplary embodiment, said positioning unit is inserted from said
open side of said cavity.
[0020] According to one exemplary embodiment, said first positioning unit and said second
positioning unit are releasably connectable to said insole member. This enables a
user to change between the two positioning units, thus allowing adaptability in which
magnetic positioning space to utilize.
[0021] According to one exemplary embodiment, said at least one of said first positioning
unit and said second positioning unit comprises at least one protrusion and wherein
said insole member comprises at least one recess arranged to receive said at least
one protrusion to hold said first or second positioning unit in place in relation
to said insole member. By having a snap-lock, friction fit, jigsaw connection piece,
or other connection arrangement between the positioning unit and the insole member,
a secure connection therebetween is provided.
[0022] According to one exemplary embodiment, said at least one protrusion is elastically
deformable to allow said first or second positioning unit to be inserted into said
insole member. According to one exemplary embodiment, said at least one protrusion
is elastically deformable to allow said first or second positioning unit to be inserted
into said cavity of said insole member.
[0023] This enables quick and easy connection of the positioning units to the insole member.
Preferably, the elasticity of the protrusion is chosen such that only a force above
a predetermined threshold causes the positioning unit to move relative to the insole
member. This allows for having a protrusion that prevents the positioning units from
accidentally disengaging the insole member, while allowing a user to deliberately
disengage the positioning units once so desired.
[0024] According to one exemplary embodiment, at least one of said first positioning unit
and said second positioning unit comprises at least two positioning members jointly
defining a magnet positioning space. When having positioning units with complex geometries,
having it made up from two positioning members may simplify the manufacturing of the
units. Furthermore, having the positioning unit be made up of a plurality of positioning
members allows for greater modularity in determining the size, orientation, and shape
of the magnet positioning space.
[0025] According to one exemplary embodiment, said cavity of said insole member is open
from two opposite sides. For example, the cavity may be open from an upper side and
a lower side of the insole member, such that a through-hole is formed. Alternatively,
the cavity may be open from the two lateral sides of the insole member. This allows
the sides of a shoe in which the magnetic insole member is to be arranged to prevent
the positioning units and the magnetic member from disengaging from the insole member.
[0026] According to one exemplary embodiment, said at least two positioning members are
inserted into said cavity from a respective side.
[0027] According to one exemplary embodiment, said cavity of said insole member is open
from one side, and closed from the opposite side. For example, the cavity may be open
from one lateral side and extend towards the opposite lateral side. Alternatively,
the cavity may be open from an upper or lower side and extend downwards or upwards
towards the opposite side of the insole member. As such, the cavity may be defined
in five directions by the insole member, and in one direction be open towards a surrounding
space.
[0028] According to one exemplary embodiment, said insole member and said first and second
positioning units are made from the same material. This enables the user of the insole
arrangement to experience a homogenous tactile feel from the entire insole arrangement,
thus improving user comfort. The insole member may for example be made from cork,
non-woven fabric, EVA, PU foam, TPU foam, Sorbothane, or Poron. Alternatively, the
positioning units may be made from hard plastic or a metal. The metal may be ferromagnetic,
and thus stick to the magnetic member arranged inside the cavity of the positioning
unit. This increases the stability of the assembly of the magnetic insole arrangement.
[0029] According to one exemplary embodiment, said insole member has an upper side, a lower
side and lateral sides. The upper side is to be understood as being the side that
is intended to face the foot of a user, while the lower side is to be understood as
being the side that is intended to face the inner sole of a shoe. The lateral sides
of the insole member are the sides that extend from a toe portion of the insole member
to a heel portion of the insole member, i.e. its longitudinally extending sides.
[0030] According to one exemplary embodiment, said cavity extends from one side of said
insole member. According to one exemplary embodiment, said cavity extends towards
an opposite side of said insole member. According to one exemplary embodiment, said
cavity extends from an upper side towards a lower side, or wherein said cavity extends
from a lower side towards an upper side, or wherein said cavity extends from one lateral
side towards an opposite lateral side. According to one exemplary embodiment, said
cavity is closed from one side of said insole member.
[0031] Generally, all terms used in the description are to be interpreted according to their
ordinary meaning in the technical field, unless explicitly defined otherwise herein.
All references to "a/an/the [element, device, component, means, step, etc.]" are to
be interpreted openly as referring to at least one instance of said element, device,
component, means, step, etc., unless explicitly stated otherwise.
BRIEF DESCRIPTION OF THE DRAWINGS
[0032] These and other features and advantages of the present invention will now be further
clarified and described in more detail, with reference to the appended drawings showing
different embodiments of a magnetic insole arrangement and a magnetic insole kit according
to the present invention.
Figure 1a is an exploded perspective view of a magnetic insole kit according to one
aspect of the present invention,
Figure 1b is a perspective view of a magnetic insole arrangement assembled using the
magnetic insole kit of Figure 1a,
Figure 2a is an exploded perspective view of a magnetic insole kit according to one
aspect of the present invention,
Figure 2b is a perspective view of a magnetic insole arrangement assembled using the
magnetic insole kit of Figure 2a,
Figure 3a is an exploded perspective view of a magnetic insole kit according to one
aspect of the present invention,
Figure 3b is a perspective view of a magnetic insole arrangement assembled using the
magnetic insole kit of Figure 3a, and
Figure 4 is a schematic view of an insole member and two positioning members according
to one aspect of the present invention.
DETAILED DESCRIPTION OF EMBODIMENTS
[0033] In the following detailed description, some embodiments of the present invention
will be described. However, it is to be understood that features of the different
embodiments are exchangeable between the embodiments and may be combined in different
ways, unless anything else is specifically indicated. Even though in the following
description, numerous specific details are set forth to provide a more thorough understanding
of the present invention, it will be apparent to one skilled in the art that the present
invention may be practiced without these specific details. In other instances, well
known constructions or functions are not described in detail, so as not to obscure
the present invention.
[0034] Figure 1a is an exploded perspective view of a magnetic insole kit 1 according to
one aspect of the present invention. In the following, the term magnetic insole kit
1 will be used to denote the entire kit, with at least two positioning units 103 configured
to allow adaptability in the placement of the magnetic member 105. The term magnetic
insole arrangement 100 will be used when referring to the arrangement achieved when
assembling the parts of the kit, choosing one of the two or more positioning units
103 and fitting this/these to the insole member 101.
[0035] The magnetic insole kit 1 comprises an insole member 101, shaped to be fitted inside
a rider's boot or shoe, either permanently or removably. The magnetic insole kit 1
further comprises a magnetic member 105 that is configured to magnetically engage
a magnetic stirrup arrangement. This allows for safe and precise positioning of a
rider's boot in relation to the stirrup. The positioning and orientation of the magnetic
member 105 in relation to the magnetic stirrup with which the magnetic insole arrangement
100 is to be used determines the position in which the boot of a rider magnetically
engages the stirrup. As such, reconfiguring the position or orientation of the magnetic
member 105 in the magnetic insole arrangement 100 is beneficial as it allows for adaptability
in feet placement.
[0036] The insole member 101 comprises a cavity 107, in which the magnetic member 105 is
to be placed. The cavity 107 is located in the front portion 109 of the insole member
101, around the area corresponding to the ball of a rider's foot. The cavity 107 extends
from one lateral side 111 of the insole member to the opposite side 113, and is open
from a top side 115 of the insole member 101. The cavity 107 is significantly larger
than the magnetic member 105, so a plurality of positioning units 103, 103' are provided
for allowing the magnetic member 105 to be fitted inside the cavity 107. In the illustrated
embodiment, two different positioning units 103, 103' are provided. Each one of these
positioning units 103, 103' comprises two respective positioning members 117, 117',
119, 119' that are dimensioned such that they may be press fitted into the cavity
107. The positioning members 117, 117', 119, 119' of either positioning unit 103,
103' define a magnet positioning space 121, 121' of substantially the same size as
the magnetic member 105, such that the magnetic member 105 may be fitted to either
one of the positioning units 103, 103'. The magnet positioning space 121 of the first
positioning unit 103 differs from the magnet positioning space 121' of the second
positioning unit 103' in that the first magnet positioning space 121 is located further
towards the front portion 109 of the insole member 101 than the second magnet positioning
space 121'. Thus, the two positioning units 103, 103' define two different magnet
positioning spaces 121, 121', thereby allowing adaptability in feet placement of a
rider using the magnetic insole arrangement 100 together with a magnetic stirrup.
[0037] The magnetic insole kit 1 further comprises an upper cover member 123, having substantially
the same outline as the insole member 101 and being arranged to cover the positioning
unit 103, 103' once placed inside the cavity 107, such that a smooth and continuous
surface is achieved at the top side 115 of the magnetic insole arrangement 100.
[0038] Figure 1b is a perspective view of a magnetic insole arrangement 100 assembled using
the magnetic insole kit 1 of Figure 1a. Here, one positioning unit 103, with its two
positioning members 117, 119, has been placed inside the cavity 107 of the insole
member 101. The two positioning members 117, 119 define a magnet positioning space
121, into which the magnetic member 105 has been placed.
[0039] Figure 2a is an exploded perspective view of a magnetic insole kit 2 according to
one aspect of the present invention. In contrast with the magnetic insole kit 1 of
figure 1a, the kit 2 comprises three positioning units 203, 203', 203", each of which
comprising a single positioning member 217, 217', 217" for arrangement in the cavity
207 of the insole member 201. Furthermore, the cavity 207 of the insole member 201
is a through-hole extending from an upper side 215 to a lower side 227 of the insole
member 201. Also, in addition to the upper cover member 223 that is arranged to cover
an upper side 215 of the insole member 201, there is provided a lower cover member
229 arranged to cover a lower side 227 of the insole member 201. Thus, the positioning
unit 203, 203', 203" held in the through-hole cavity 207 of the insole member 201
and the magnetic member 205 held therein may be secured between the upper and the
lower cover members 223, 229.
[0040] The kit of figure 2a comprises three positioning units 203, 203' 203", each defining
a different magnet positioning space 221, 221', 221". The magnet positioning space
221 defined by one of the three positioning units 203 is angled to allow for an angled
positioning of the rider's boots to the stirrups. The magnet positioning space 221'
defined by another one of the three positioning units 203' is straight, thus allowing
a straight positioning of the rider's boots. The third magnet positioning space 221"
is also straight, i.e. extending in a direction that is perpendicular to the longitudinal
extension of the insole member 201, but arranged slightly closer to the front portion
209 of the insole member 201 than the first magnet positioning space 221.
[0041] Figure 2b is a perspective view of a magnetic insole arrangement 200 assembled using
the magnetic insole kit 2 of Figure 2a. Here, one of the three positioning units 203
has been placed inside the cavity 207 of the insole member 201. The upper and the
lower sides 215, 227 of the insole member 201 has been covered by a respective cover
member 223, 229, such that the positioning unit 203 and the magnetic member 205 is
held in place therebetween.
[0042] Figure 3a is an exploded perspective view of a magnetic insole kit 3 according to
one aspect of the present invention. In contrast with the magnetic insole kit 1, 2
of figures 1a and 2a, the cavity 307 of the insole member 301 extends from one lateral
side 311 of the insole member 301 and partway towards the opposite lateral side 313
of the insole member 301. Thus, the cavity 307 is neither a through-hole cavity 207
as in the kit 2 of figure 2a, nor a double-sided open cavity 107 as in the kit 1 of
figure 1a. Instead, the cavity 307 of the insole member 301 of this kit 3 is open
from an upper side 315 of the insole member 301, and from one lateral side 311 of
the insole member 301. Thus, the positioning units 303, 303', 303" of this kit 3 are
inserted from a lateral side 311 of the insole member 301, and the top of the cavity
307 is covered by an upper cover member 323 as in the kits 1, 2 illustrated above.
The kit 3 of figure 3a comprises three positioning units 303, 303', 303", each of
which comprises a single positioning member 317, 317', 317" for arrangement in the
cavity 307 of the insole member 301.
[0043] Figure 3b is a perspective view of a magnetic insole arrangement 300 assembled using
the magnetic insole kit 3 of Figure 3a. Here, one of the three positioning units 303
has been placed inside the cavity 307 of the insole member 301. The upper side 315
of the insole member 301 has been covered by an upper cover member 323, such that
the positioning unit 303 and the magnetic member 305 are held in place inside the
cavity 307.
[0044] Figure 4 is a schematic view of an insole member 401 and two positioning members
417, 419. The positioning members 417, 419 are arranged in a cavity 407 of the insole
member 401, similar to the positioning members 117, 119 shown in Figs. 1a and 1b.
Each one of the two positioning members 417, 419 comprises a protrusion 425 for locking
the positioning members 417, 419 in place in relation to the insole member 401. The
protrusion 425 is wedge-shaped, and the insole member 401 has a corresponding recess
into which the protrusion 425 is received as the positioning member 417, 419 is inserted
into the cavity 407. Furthermore, the protrusions 425 of the first and second positioning
members 417, 419 are elastically deformable to allow the positioning members 417,
419 to be inserted into the cavity 407 of the insole member 401.
[0045] The person skilled in the art realizes that the present invention by no means is
limited to the embodiments described above. The features of the described embodiments
may be combined in different ways, and many modifications and variations are possible
within the scope of the appended claims. In the claims, any reference signs placed
between parentheses shall not be construed as limiting to the claim. The word "comprising"
does not exclude the presence of other elements or steps than those listed in the
claim. The word "a" or "an" preceding an element does not exclude the presence of
a plurality of such elements.
1. A magnetic insole kit comprising an insole member, at least one magnetic member, a
first positioning unit, and a second positioning unit,
wherein said insole member and said first positioning unit jointly defines a first
magnet positioning space,
wherein said insole member and said second positioning unit jointly defines a second
magnet positioning space that is different from said first magnet positioning space,
wherein said first magnet positioning space and said second magnet positioning space
are arranged to receive said at least one magnetic member.
2. Magnetic insole kit according to claim 1, wherein said insole member comprises a cavity,
and wherein said cavity is arranged to receive either of said first positioning unit
and said second positioning unit.
3. Magnetic insole kit according to any one of the preceding claims, wherein said insole
member comprises an insole base and at least one cover member.
4. Magnetic insole kit according to claim 3, wherein said cavity is formed in said insole
base, and wherein said at least one cover member covers at least one side of said
cavity.
5. Magnetic insole kit according to claim 2, wherein said cavity of said insole member
is open from one side.
6. Magnetic insole kit according to any one of the preceding claims, wherein said first
positioning unit and said second positioning unit are releasably connectable to said
insole member.
7. Magnetic insole kit according to any one of the preceding claims, wherein said at
least one of said first positioning unit and said second positioning unit comprises
at least one protrusion and wherein said insole member comprises at least one recess
arranged to receive said at least one protrusion to hold said first or second positioning
unit in place in relation to said insole member.
8. Magnetic insole kit according to claim 7, wherein said at least one protrusion is
elastically deformable to allow said first or second positioning unit to be inserted
into said insole member.
9. Magnetic insole kit according to any one of the preceding claims, wherein at least
one of said first positioning unit and said second positioning unit comprises at least
two positioning members jointly defining a magnet positioning space.
10. Magnetic insole kit according to any one of the preceding claims, wherein said insole
member and said first and second positioning units are made from the same material.