Note: Claims are shown in the official language in which they were submitted.
CLAIMS
1. A bottle adapted to thermally condition and filter consumable beverages,
comprising:
a container configured to hold a consumable beverage, the container defining a
mouth
and a cavity configured to hold the consumable beverage;
a lid detachably secured to the bottle to cover the mouth, the lid defining a
lid fluid
passageway;
a drinking spout located on the lid and configured to facilitate consumption
of the
consumable beverage from the container, the lid fluid passageway being
configured to guide
consumable beverage through the lid to the drinking spout;
a filter located in the cavity;
a thermal energy storage member disposed in the cavity and located between the
filter
and the lid, the thermal energy storage member defining a bore therethrough,
the bore being
configured to receive a straw therein so that an interior surface of the bore
is substantially
coextensive with an exterior surface of the straw;
the straw having first and second straw ends, the first straw end being
configured to
detachably engage the filter and the second straw end being configured to
detachably engage
the lid to create a straw fluid passageway between the filter and the lid
fluid passageway;
wherein when the straw is engaged with the filter and the lid and the thermal
energy
storage member is located over the straw, the bottle is adapted to thermally
condition and
filter the consumable beverage and the bottle is adapted to allow consumption
of the
consumable beverage from the cavity, through the filter, through the straw
fluid passageway,
through the lid fluid passageway, and through the drinking spout.
2. The bottle of claim 1, wherein the thermal energy storage member defines
a
longitudinal axis, the bore being generally aligned along the longitudinal
axis.
3. The bottle of claim 2, wherein the thermal energy storage member is
generally
conically shaped with first and second thermal energy storage member ends, the
second
thermal energy storage member end being larger than the first end and being
configured to
generally approximate an area of one side of the filter, the first thermal
energy storage
23
member end being located adjacent to the lid and the second thermal energy
storage end
being located adjacent to the filter.
4. The bottle of claim 1, wherein the straw is detachably engaged to the
filter via a first
twist lock connection and wherein the straw is detachably engaged to the lid
via a second
twist lock connection.
5. The bottle of claim 1, wherein the filter comprises first and second
filter ends, the first
filter end being located on the one side of the filter, the second filter end
being located
proximate a base of the cavity, such that liquid drawn through the filter
defines a filter path
that is generally axially aligned with the longitudinal axis of the thermal
energy storage
member.
6. The bottle of claim 1, wherein the thermal energy storage member
comprises a
plurality of thermal energy storage elements that are assembled in a side-by-
side manner to
extend between one side of the filter and the lid, the thermal energy storage
elements being
adjustable in at least one of angular orientation relative to the straw and in
side-by-side
positioning relative to each other.
7. A bottle adapted to thermally condition and filter consumable beverages,
comprising:
a container configured to hold a consumable beverage, the container defining a
mouth
and a cavity configured to hold the consumable beverage;
a lid detachably secured to the container to cover the mouth, the lid defining
a lid
fluid passageway;
a drinking spout located on the lid and configured to facilitate consumption
of the
consumable beverage from the container, the lid fluid passageway being
configured to guide
consumable beverage through the lid to the drinking spout;
a filter located in the cavity;
a thermal energy storage member disposed in the cavity and located between the
filter
and the lid, the thermal energy storage member defining a bore therethrough,
the bore being
adapted to form a thermal energy storage member fluid passageway;
24
the thermal energy storage member having first and second thermal energy
storage
member ends, the second thermal energy storage member end being detachably
engageable
with the filter, the first thermal energy storage member end being detachably
engageable with
the lid so that the thermal energy storage member fluid passageway forms a
conduit between
the filter and the lid fluid passageway;
wherein when the thermal energy storage member is engaged with the filter and
the
lid, the bottle is adapted to thermally condition and filter the consumable
beverage and the
bottle is adapted to allow consumption of the consumable beverage from the
cavity, through
the filter, through the thermal energy storage member fluid passageway,
through the lid fluid
passageway, and through the drinking spout.
8. The bottle of claim 7, further comprising the thermal energy storage
member having a
longitudinal axis, the bore being generally aligned along the longitudinal
axis.
9. The bottle of claim 8, wherein the thermal energy storage member is
generally
conically shaped with first and second thermal energy storage member ends, the
second end
being larger than the first end and being configured to generally approximate
an area of one
side of the filter, the first thermal energy storage member end being located
adjacent to the lid
and the second thermal energy storage end being located adjacent to the
filter.
10. The bottle of claim 9, wherein the thermal energy storage member is
detachably
engaged to the filter via a first twist lock connection and wherein the
thermal energy storage
member is detachably engaged to the lid via a second twist lock connection.
11. The bottle of claim 10, wherein the filter comprises first and second
filter ends, the
first filter end being located on the one side of the filter, the second
filter end being located
proximate a base of the cavity, such that liquid drawn through the filter
defines a filter path
that is generally axially aligned with the longitudinal axis of the thermal
energy storage
member.
12. The bottle of claim 7, wherein liquid drawn through the filter defines
a filter path that
is generally axially aligned with the longitudinal axis of the thermal energy
storage member.
13. The bottle of claim 7, wherein the thermal energy storage member is
detachably
engaged to the filter via a first threaded connection and wherein the thermal
energy storage
member is detachably engaged to the lid via a second threaded connection.
14. The bottle of claim 7, wherein the filter includes at least one inlet
and an outlet.
15. The bottle of claim 14, wherein the filter includes a first screen
proximate to the at
least one inlet and a second screen proximate to the outlet.
16 . The bottle of claim 15, wherein the filter further includes filter
material between the
first screen and the second screen.
17. The bottle of claim 16, wherein the filter material includes carbon
particles.
18. The bottle of claim 16, wherein the filter material includes ceramic
particles.
19. The bottle of claim 7, wherein the container has a cavity base;
the filter is located proximate to the cavity base; and the bottle further
comprises a
straw located in the cavity and spaced from the thermal energy storage member,
the straw
having first and second straw ends, the first straw end being engaged with the
filter and the
second straw end being engaged with the lid to create a straw fluid passageway
between the
filter and the lid fluid passageway;
wherein when the straw is engaged with the filter and the lid and the thermal
energy
storage member is engaged with the filter and the lid, the bottle is adapted
to thermally
condition and filter the consumable beverage and the bottle is adapted to
allow consumption
of the consumable beverage from the cavity, through the filter, through the
straw fluid
passageway, through the lid fluid passageway, and through the drinking spout.
20. The bottle of claim 19, wherein the straw and the thermal energy
storage member are
generally parallel and both connect to one side of the filter, the filter
further comprising first
and second filter ends, the first filter end being located on the one side of
the filter, the second
26
filter end being located proximate a base of the cavity, such that liquid
drawn through the
filter is removed from the cavity proximate the cavity base.
21. The bottle of claim 7, wherein the bottle further comprises a straw
spaced from the
thermal energy storage member.
22. The bottle of claim 21, wherein the straw and the thermal energy
storage member are
generally parallel.
23. A bottle adapted to thermally condition and filter consumable
beverages, comprising:
a container configured to hold a consumable beverage, the container defining a
mouth
and a cavity configured to hold the consumable beverage and having a cavity
base;
a lid detachably secured to the bottle to cover the mouth, the lid defining a
lid fluid
passageway;
a drinking spout located on the lid and configured to facilitate consumption
of the
consumable beverage from the container, the lid fluid passageway being
configured to guide
consumable beverage through the lid to the drinking spout;
a filter located in the cavity proximate to the cavity base;
a thermal energy storage member disposed in the cavity and located between the
filter
and the lid, the thermal energy storage member being engaged with the lid and
with the filter;
a straw located in the cavity external to the thermal energy storage member,
the straw
having first and second straw ends, the first straw end being engaged with the
filter and the
second straw end being engaged with the lid to create a straw fluid passageway
between the
filter and the lid fluid passageway;
wherein when the straw is engaged with the filter and the lid and the thermal
energy
storage member is engaged with the filter and the lid, the bottle is adapted
to thermally
condition and filter the consumable beverage and the bottle is adapted to
allow consumption
of the consumable beverage from the cavity, through the filter, through the
straw fluid
passageway, through the lid fluid passageway, and through the drinking spout.
27
24. The bottle of claim 23, wherein the straw and the thermal energy
storage member are
generally parallel and both connect to one side of the filter, the filter
further comprising first
and second filter ends, the first filter end being located on the one side of
the filter, the second
filter end being located proximate a base of the cavity, such that liquid
drawn through the
filter is removed from the cavity proximate the cavity base.
25. A bottle adapted to thermally condition and filter consumable
beverages, comprising:
a container configured to hold a consumable beverage, the container defining a
mouth
and a cavity configured to hold the consumable beverage and having a cavity
base;
a lid detachably secured to the bottle to cover the mouth, the lid defining a
lid fluid
passageway;
a drinking spout located on the lid and configured to facilitate consumption
of the
consumable beverage from the container, the lid fluid passageway being
configured to guide
consumable beverage through the lid to the drinking spout;
a filter located in the cavity proximate to the lid, the filter comprising a
filter cartridge
and a filter housing, the filter cartridge comprising a first cartridge end
proximate the lid fluid
passageway, and a second cartridge end proximate a thermal energy storage
member located
in the cavity and disposed on the filter housing, and a cartridge sidewall,
the filter cartridge
being engaged with the lid and the filter housing being engaged with the
filter cartridge so as
to form a fluid inlet proximate to the lid, and the filter the fluid inlet
configured to guide the
consumable beverage into the first cartridge end, along the cartridge
sidewall, into the second
cartridge end, and into the filter cartridge;
a thermal energy storage member located in the cavity and disposed on the
filter
housing;
wherein the bottle is adapted to thermally condition and filter the consumable
beverage and the bottle is adapted to allow consumption of the consumable
beverage from the
cavity, through the filter, through the lid fluid passageway, and through the
drinking spout.
26. The bottle of claim 25, wherein the filter cartridge is an axial flow
filter having first
and second cartridge ends and a cartridge sidewall, the first cartridge end
being located
proximate the lid fluid passageway and the second cartridge end being located
proximate the
28
thermal energy storage member, the filter being configured such that
consumable beverage
enters the housing proximate the lid, flows generally along the cartridge
sidewall, into the
second cartridge end, out the first cartridge end, and into the lid fluid
passageway.
27. The bottle of claim 25, wherein the filter cartridge is a radial flow
filter having first
and second cartridge ends and a cartridge sidewall, the first cartridge end
being located
proximate the lid fluid passageway and the second cartridge end being located
proximate the
thermal energy storage member, the filter being configured such that
consumable beverage
enters the housing proximate the lid, flows into the filter cartridge
generally through the
cartridge sidewall, out the first cartridge end, and into the lid fluid
passageway.
28. The bottle of claim 27, wherein the filter cartridge is detachably
engaged with the lid.
29. The bottle of claim 28, wherein the filter cartridge is detachably
engaged with the lid
via a first threaded connection.
30. The bottle of claim 28, wherein the filter cartridge is detachably
engaged with the lid
via a first twist lock connection.
31. The bottle of claim 27, wherein the thermal energy storage member is
detachably
engaged with the filter housing.
32. The bottle of claim 31, wherein the thermal energy storage member is
detachably
engaged with the filter housing via a second threaded connection.
33. The bottle of claim 31, wherein the thermal energy storage member is
detachably
engaged with the filter housing via a second twist lock connection.
34. The bottle of claim 27, wherein the filter material includes carbon
particles.
35. The bottle of claim 27, wherein the filter material includes ceramic
particles.
29
36. A method of providing a customizable bottle adapted to thermally
condition and filter
consumable beverages, comprising the steps of:
providing a container configured to hold a consumable beverage, the container
defining a mouth and a cavity configured to hold the consumable beverage;
providing a lid detachably secured to the bottle to cover the mouth, the lid
defining a
lid fluid passageway, the lid comprising a drinking spout thereon and
configured to facilitate
consumption of the consumable beverage from the container, the lid fluid
passageway being
configured to guide the consumable beverage through the lid to the drinking
spout;
providing a filter;
providing a straw having first and second straw ends, the first straw end
being
configured to detachably engage the filter and the second straw end being
configured to
detachably engage the lid to create a straw fluid passageway between the
filter and the lid
fluid passageway;
positioning the filter in the cavity;
locating a thermal energy storage member in the cavity and between the filter
and the
lid, the thermal energy storage member defining a bore therethrough, the bore
being
configured to receive a straw therein so that an interior surface of the bore
is substantially
coextensive with an exterior surface of the straw; and
inserting the straw through the bore of the thermal energy storage member and
securing the straw to the filter and the lid, wherein when the straw is
engaged with the filter
and the lid and the thermal energy storage member is located over the straw,
the bottle is
adapted to thermally condition and filter the consumable beverage, and wherein
the bottle is
adapted to allow consumption of the consumable beverage from the cavity,
through the filter,
through the straw fluid passageway, through the lid fluid passageway, and
through the
drinking spout.
37. The method of claim 36, wherein the step of locating a thermal energy
storage
member further comprises one or more additional thermal energy storage
elements each
bearing at least one of a color, an indicia, an image, and a textured surface
to allow for a
customized look to be created for the bottle depending on the positioning of
the thermal
energy storage elements on the straw.
38. A kit for use with consumable beverages, comprising:
a container configured to hold a consumable beverage, the container defining a
mouth
and a cavity configured to hold the consumable beverage;
a lid detachably secured to the bottle to cover the mouth, the lid defining a
lid fluid
passageway;
a drinking spout located on the lid and configured to facilitate consumption
of the
consumable beverage from the container, the lid fluid passageway being
configured to guide
the consumable beverage through the lid to the drinking spout;
a filter adapted to be located in the cavity;
a first thermal energy storage member disposed in the cavity and located
between the
filter and the lid, the first thermal energy storage member defining a bore
therethrough, the
bore being configured to receive a straw therein;
the straw having first and second straw ends, the first straw end being
configured to
detachably engage the filter and the second straw end being configured to
detachably engage
the lid to create a straw fluid passageway between the filter and the lid
fluid passageway,
wherein when the straw is engaged with the filter and the lid and the thermal
energy storage
member is located over the straw, the bottle is adapted to thermally condition
and filter the
consumable beverage and the bottle is adapted to allow consumption of the
consumable
beverage from the cavity, through the filter, through the straw fluid
passageway, through the
lid fluid passageway, and through the drinking spout; and
a second thermal energy storage member configured to substitute for the filter
if
additional cooling is desired and filtering of the consumable beverage is not
desired.
39. The kit of claim 38, wherein the second thermal energy storage member
has an
exterior shape generally the same as an exterior shape of the filter to allow
the bottle to have
substantially the same aesthetic appearance regardless of whether the filter
or the second
thermal energy storage member is being used.
40. The kit of claim 38, wherein the first thermal energy storage member
comprises a
plurality of thermal energy storage elements that are assembled in a side-by-
side manner to
extend between one side of the filter and the lid, the thermal energy storage
elements being
31
adjustable in at least one of angular orientation relative to the straw and in
side-by-side
positioning relative to each other.
41. A method of providing a bottle adapted to thermally condition and
filter consumable
beverages, comprising the steps of:
providing a container configured to hold a consumable beverage, the container
defining a mouth and a cavity configured to hold the consumable beverage;
providing a lid detachably secured to the container to cover the mouth, the
lid
defining a lid fluid passageway, the lid including a drinking spout located on
the lid and
configured to facilitate consumption of the consumable beverage from the
container, the lid
fluid passageway being configured to guide consumable beverage through the lid
to the
drinking spout;
providing a filter; and
positioning a thermal energy storage member disposed between the filter and
the lid,
the thermal energy storage member defining a bore therethrough, the bore being
adapted to
form a thermal energy storage member fluid passageway;
wherein the thermal energy storage member includes first and second thermal
energy
storage member ends, the second thermal energy storage member end being
detachably
engageable with the filter, the first thermal energy storage member end being
detachably
engageable with the lid so that the thermal energy storage member fluid
passageway forms a
conduit between the filter and the lid fluid passageway; and
wherein when the thermal energy storage member is engaged with the filter and
the
lid, the bottle is adapted to thermally condition and filter the consumable
beverage and the
bottle is adapted to allow consumption of the consumable beverage from the
cavity, through
the filter, through the thermal energy storage member fluid passageway,
through the lid fluid
passageway, and through the drinking spout.
42. The method of claim 41, wherein the thermal energy storage member
further defines a
longitudinal axis, the bore being generally aligned along the longitudinal
axis.
32
43. The method of claim 41, wherein liquid drawn through the filter defines
a filter path
that is generally axially aligned with the longitudinal axis of the thermal
energy storage
member.
44. The method of claim 41, wherein the thermal energy storage member is
generally
conically shaped with first and second thermal energy storage member ends, the
second end
being larger than the first end and being configured to generally approximate
an area of one
side of the filter, the first thermal energy storage member end being located
adjacent the lid
and the second thermal energy storage end being located adjacent the one side
of the filter.
45. The method of claim 41, wherein the thermal energy storage member is
detachably
engaged to the filter via a first twist lock connection and wherein the
thermal energy storage
member is detachably engaged to the lid via a second twist lock connection.
46. The method of claim 41, wherein the thermal energy storage member is
detachably
engaged to the filter via a first threaded connection and wherein the thermal
energy storage
member is detachably engaged to the lid via a second threaded connection.
47. The method of claim 41, wherein the filter includes at least one inlet
and an outlet.
48. The method of claim 47, wherein the filter includes a first screen
proximate to the at
least one inlet and a second screen proximate to the outlet.
49. The method of claim 48, wherein the filter further includes filter
material between the
first screen and the second screen.
50. The method of claim 49, wherein the filter material includes carbon
particles.
51. The method of claim 49, wherein the filter material includes ceramic
particles.
3-3
52. An assembly comprising:
a filter having at least one inlet and an outlet; and a thermal energy storage
member
detachably engageable with the filter, the thermal energy storage member
defining a bore
therethrough;
wherein the assembly creates a flow path from the outlet of the filter through
the bore
of the thermal energy storage member.
53. The assembly of claim 52, wherein the thermal energy storage member
defines a
longitudinal axis, the bore being generally aligned along the longitudinal
axis.
54. The assembly of claim 52, wherein the thermal energy storage member is
detachably
engaged to the filter via a twist lock connection.
55. The assembly of claim 52, wherein the thermal energy storage member is
detachably
engaged to the filter via a threaded connection.
56. The assembly of claim 52, wherein liquid drawn through the filter
defines a filter path
that is generally axially aligned with the longitudinal axis of the thermal
energy storage
member.
57. The assembly of claim 52, wherein the filter includes a first screen
proximate to the at
least one inlet and a second screen proximate to the outlet.
58. The assembly of claim 57, wherein the filter further includes filter
material between
the first screen and the second screen.
59. The assembly of claim 58, wherein the filter material includes carbon
particles.
60. The assembly of claim 58, wherein the filter material includes ceramic
particles.
34
61. A method of thermally conditioning and filtering consumable beverages,
the method
comprising the steps of:
providing a filter having at least one inlet and an outlet;
providing a thermal energy storage member detachably engageable with the
filter, the
thermal energy storage member defining a bore therethrough;
coupling the filter to the thermal energy storage member to create a flow path
from
the outlet of the filter through the bore of the thermal energy storage
member; and
consumable beverage in the container can flow through the filter and through
the
thermal energy storage member to the lid.
62. The method of claim 61, wherein the thermal energy storage member
defines a
longitudinal axis, the bore being generally aligned along the longitudinal
axis.
63. The method of claim 61, wherein the thermal energy storage member is
detachably
engaged to the filter via a twist lock connection.
64. The method of claim 61, wherein the thermal energy storage member is
detachably
engaged to the filter via a threaded connection.
65. The method of claim 61, wherein liquid drawn through the filter defines
a filter path
that is generally axially aligned with the longitudinal axis of the thermal
energy storage
member.
66. The method of claim 61, wherein the filter includes a first screen
proximate to the at
least one inlet and a second screen proximate to the outlet.
67. The method of claim 66, wherein the filter further includes filter
material between the
first screen and the second screen.
68. The method of claim 67, wherein the filter material includes carbon
particles.
69. The method of claim 67, wherein the filter material includes ceramic
particles.
70. A method of providing a bottle adapted to thermally condition and
filter a consumable
beverage, the method comprising:
providing a container configured to hold a consumable beverage, the container
defining a mouth and a cavity configured to hold the consumable beverage;
providing a lid detachably secured to the bottle to cover the mouth, the lid
defining a
lid fluid passageway, the lid comprising a drinking spout thereon and
configured to facilitate
consumption of the consumable beverage from the container, the lid fluid
passageway being
configured to guide the consumable beverage through the lid to the drinking
spout;
positioning a filter located in the cavity;
locating a thermal energy storage member in the cavity and between the filter
and the
lid, the thermal energy storage member defining a bore therethrough, the bore
being
configured to receive a straw therein so that an interior surface of the bore
is substantially
coextensive with an exterior surface of the straw, wherein the thermal energy
storage member
comprises a plurality of thermal energy storage elements that are assembled in
a side-by-side
manner to extend between one side of the filter and the lid, the thermal
energy storage
elements being adjustable in at least one of angular orientation relative to
the straw and in
side-by-side positioning relative to each other; and inserting a straw through
the bore of the
thermal energy storage member; and
securing the straw to the filter and the lid, wherein when the straw is
engaged with the
filter and the lid and the thermal energy storage member is located over the
straw, the bottle
is adapted to thermally condition and filter the consumable beverage.
71. The method of claim 70, wherein the filter cartridge is an axial flow
filter having first
and second cartridge ends and a cartridge sidewall, the first cartridge end
being located
proximate the lid fluid passageway and the second cartridge end being located
proximate the
thermal energy storage member, the filter being configured such that
consumable beverage
enters the housing proximate the lid, flows generally along the cartridge
sidewall, into the
second cartridge end, out the first cartridge end, and into the lid fluid
passageway.
72. The method of claim 70, wherein the filter cartridge is a radial flow
filter having first
and second cartridge ends and a cartridge sidewall, the first cartridge end
being located
proximate the lid fluid passageway and the second cartridge end being located
proximate the
36
thermal energy storage member, the filter being configured such that
consumable beverage
enters the housing proximate the lid, flows into the filter cartridge
generally through the
cartridge sidewall, out the first cartridge end, and into the lid fluid
passageway.
73. The method of claim 70, wherein the filter cartridge is detachably
engaged with the
lid.
74. The method of claim 73, wherein the filter cartridge is detachably
engaged with the
lid via a first threaded connection.
75. The method of claim 73, wherein the filter cartridge is detachably
engaged with the
lid via a first twist lock connection.
76. The method of claim 70, wherein the thermal energy storage member is
detachably
engaged with the filter housing.
77. The method of claim 76, wherein the thermal energy storage member is
detachably
engaged with the filter housing via a second threaded connection.
78. The method of claim 76, wherein the thermal energy storage member is
detachably
engaged with the filter housing via a second twist lock connection.
79. The method of claim 70, wherein the filter material includes carbon
particles.
80. The method of claim 70, wherein the filter material includes ceramic
particles.
37