All The Claims

1. A xylophone comprising
a frame having
two panels, each panel having an inner surface and two edges; and
two pairs of supports being attached between the two panels and each support having
a top surface; and
a trough being longitudinally formed in the top surface of the support;
multiple spacers being respectively mounted in and corresponding respectively to the troughs of the supports and each spacer having
a top surface;
a two edges;

two sets of bars being mounted respectively on and corresponding respectively to the pairs of the supports and each bar having
a top surface;
two ends; and
two through holes being formed through the top surface of the bar respectively adjacent to the ends;

multiple sleeves being respectively mounted through the through holes of the bars; and
multiple fasteners being respectively mounted through the sleeves.
2. The xylophone as claimed in claim 1, wherein
the trough of each support comprises
a groove being formed longitudinally in the top surface of the support and having two sides; and
two guide channels being respectively formed in the sides of the groove; and

each spacer further has two shoulders being respectively formed on the edges of the spacer and mounted in the guide channels of a corresponding trough.
3. The xylophone as claimed in claim 2, wherein each spacer further has multiple protruding mounts being formed on and protruding from the top surface of the spacer and each protruding mount having a hole formed through the protruding mount.
4. The xylophone as claimed in claim 1, wherein each spacer further has multiple protrusions being formed at intervals on and protruding from the top surface of the spacer.
5. The xylophone as claimed in claim 2, wherein each spacer further has multiple protrusions being formed at intervals on and protruding from the top surface of the spacer.
6. The xylophone as claimed in claim 3, wherein each spacer further has multiple protrusions being formed at intervals on and protruding from the top surface of the spacer.
7. The xylophone as claimed in claim 4, wherein
each panel further has multiple seats being mounted on the inner surface of the panel; and
each support is mounted in one of the seats of a corresponding one of the panels.
8. The xylophone as claimed in claim 5, wherein
each panel further has multiple seats being mounted on the inner surface of the panel; and
each supports is mounted in one of the seats of a corresponding one of the panels.
9. The xylophone as claimed in claim 6, wherein
each panel further has multiple seats being mounted on the inner surface of the panel; and
each support is mounted in one of the seats of a corresponding one of the panels.
10. The xylophone as claimed in claim 7, wherein
four seats are implemented on each panel, two being mounted centrally and two being mounted respectively adjacent to the edges of the panel; and
the supports are implemented as
two primary supports being mounted respectively in the seats mounted centrally on the panels; and
two secondary supports being longer than the primary supports and being mounted in the seat mounted adjacent to the edges of the panels; and each bar is mounted between one primary support and one secondary support.
11. The xylophone as claimed in claim 8, wherein
four seats are implemented on each panel, two being mounted centrally and two being mounted respectively adjacent to the edges of the panel; and
the supports are implemented as
two primary supports being mounted respectively in the seats mounted centrally on the panels; and
two secondary supports being longer than the primary supports and being mounted in the seat mounted adjacent to the edges of the panels; and each bar is mounted between one primary support and one secondary support.
12. The xylophone as claimed in claim 9, wherein
four seats are implemented on each panel, two being mounted centrally and two being mounted respectively adjacent to the edges of the panel; and
the supports are implemented as
two primary supports being mounted respectively in the seats mounted centrally on the panels; and
two secondary supports being longer than the primary supports and being mounted in the seat mounted adjacent to the edges of the panels; and each bar is mounted between one primary support and one secondary support.
13. The xylophone as claimed in claim 10, wherein each bar has two countersinks being formed in the top of the bar and located respectively around the through holes of the bar.
14. The xylophone as claimed in claim 11, wherein each bar has two countersinks being formed in the top of the bar and located respectively around the through holes of the bar.
15. The xylophone as claimed in claim 12, wherein each bar has two countersinks being formed in the top of the bar and mounted respectively around the through holes of the bar.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. A generator system for use in a Rankine cycle, comprising:
a turbine generator apparatus including an inlet conduit to direct a working fluid in a Rankine cycle toward a turbine wheel that is rotatable in response to expansion of the working fluid; and
a liquid separator to separate a liquid state portion of the working fluid from a gaseous state portion of the working fluid, the liquid separator being connected in the Rankine cycle upstream of the turbine generator apparatus so that the gaseous state portion of the working fluid is directed to the inlet conduit after separation of the liquid state portion.
2. The generator system of claim 1, wherein the liquid separator comprises a cyclone separator device.
3. The generator system of claim 2, wherein at least a component of the cyclone separator mechanically rotates to centrifugally separate the liquid state portion of the working fluid from the gaseous state portion of the working fluid.
4. The generator system of claim 1, wherein the liquid separator comprises a coalescing membrane device.
5. The generator system of claim 1, wherein the liquid separator is connected in the Rankine cycle upstream of the turbine generator apparatus so that the working fluid is in a heated and pressurized state when received by the liquid separator.
6. The generator system of claim 5, wherein the liquid separator directs the liquid state portion to a low pressure reservoir in the Rankine cycle and directs the gaseous state portion to the inlet conduit of turbine generator apparatus.
7. The generator system of claim 6, wherein the liquid separator serves as a reservoir volume disposed upstream of the turbine generator apparatus in the Rankine cycle so as to maintain flow stability to the turbine generator apparatus in the event of a burst of flow from upstream of the turbine generator apparatus.
8. The generator system of claim 1, further comprising a system package that houses the turbine generator apparatus, the liquid separator, a fluid pump device, and a low pressure reservoir for the working fluid, the system package having a width of less than about 72 inches and a height of less than about 80 inches so as to fit through a double-door passage.
9. The generator system of claim 8, wherein system package has a width of about 48 inches or less and a height of about 78 inches or less.
10. The generator system of claim 1, further comprising a flow valve arranged in the Rankine cycle upstream of the turbine generator apparatus so as to selectively close the flow of the working fluid to the turbine generator apparatus.
11. The generator system of claim 10, further comprising a bypass valve arranged in the Rankine cycle to selectively open the flow of the working fluid to bypass the turbine generator apparatus, wherein the flow valve and the bypass valve are mechanically coupled to one another to operate in unison.
12. The generator system of claim 1, wherein the turbine generator apparatus comprises:
an electrical energy generator having a stator and a rotor, the rotor coupled to the turbine wheel so as to rotate when the turbine wheel rotates in response to expansion of the working fluid flowing from proximate an inlet side to an outlet side of the turbine wheel, the rotor being arranged on the outlet side of the turbine wheel.
13. The generator system of claim 1, wherein the Rankine cycle is an organic Rankine cycle.
14. A method comprising:
directing heated and pressurized working fluid in a Rankine cycle toward a liquid separator arranged in the Rankine cycle upstream of a turbine generator apparatus;
separating a liquid state portion of the heated and pressurized working fluid from a gaseous state portion of the heated and pressurized working fluid; and
directing the gaseous state portion of the working fluid to an inlet conduit of the turbine generator apparatus and toward a turbine wheel that is rotatable in response to expansion of the working fluid.
15. The method of claim 14, wherein the liquid separator comprises a cyclone separator device, the method further comprising rotating at least a component of the cyclone separator to centrifugally separate the liquid state portion of the working fluid from the gaseous state portion of the working fluid.
16. The method of claim 14, further comprising directing the liquid state portion of the working fluid to a low pressure reservoir in the Rankine cycle.
17. The method of claim 16, further comprising maintaining flow stability to the turbine generator apparatus in the event of a burst of flow from upstream of the turbine generator apparatus.
18. The method of claim 14, further comprising rotating the turbine wheel of the turbine generator apparatus a rotor of a generator using a turbine in response to expansion of the working fluid flowing from proximate an inlet side to an outlet side of the turbine wheel.
19. The method of claim 18, further comprising generating electrical energy from the rotation of the turbine wheel, the turbine wheel being coupled to a rotor of an electrical energy generator, the rotor being arranged on the outlet side of the turbine wheel.
20. A generator system for use in a Rankine cycle, comprising:
a low pressure reservoir for a working fluid of a Rankine cycle;
a pump device to pressurize the working fluid delivered from the low pressure reservoir;
a liquid separator to separate a liquid state portion of the working fluid from a gaseous state portion of the working fluid, the liquid separator being arranged in the Rankine cycle downstream of the pump device so as to receive the pressurized working fluid from the pump device;
a turbine generator apparatus that generates electrical energy in response expansion of the working fluid, the turbine generator apparatus being arranged in the Rankine cycle downstream of liquid separator so that the gaseous state portion of the working fluid is directed to the turbine generator apparatus after separation of the liquid state portion;
a flow valve arranged in the Rankine cycle upstream of the turbine generator apparatus so as to selectively close the flow of the working fluid to the turbine generator apparatus;
a bypass valve arranged in the Rankine cycle to selectively open a bypass conduit that directs the working fluid toward the low pressure reservoir without passing into the turbine generator apparatus, wherein the flow valve and the bypass valve are mechanically coupled to one another to operate in unison
a transportable system package that houses the low pressure reservoir, the pump device, the liquid separator, the turbine generator apparatus, the flow valve, and the bypass valve.

1. A composition which comprises
(1) a mono-Cy CYC carrier, and
(2) a release material,

the mono-Cy CYC carrier being a non-polymeric compound which
(A) has crystallinity such that the mono-Cy CYC carrier has a crystalline melting temperature, Tp, of least 0\xb0 C. and a \u0394H of at least 3 Jg, measured as hereinbefore defined, and
(B) has the formula.
Q-Cy

wherein
Cy is a moiety which provides the mono-Cy CYC carrier with its crystallinity, and
Q is a moiety which (i) is free of Cy moieties and (ii) contains at least one functional moiety which associates with the release material.
2. A composition according to claim 1 wherein the release material contains a Cy moiety.
3. A composition according to claim 1 wherein the functional moiety is a hydrophilic moiety and the release material contains a hydrophilic moiety.
4. A composition according to claim 1 wherein the functional moiety comprises a polyoxyalkylene group.
5. A composition according to claim 1 wherein the functional group forms a covalent link with the release material.
6. A composition according to claim 1 wherein the functional group is a polar group.
7. A composition according to claim 1 wherein the mono-Cy CYC carrier has a Tp of 27-100\xb0 C.
8. A composition according to claim 1 which comprises microparticles having an average particle size of 0.5-250\u03bc.
9. A composition according to claim 1 which contains 2-10% of a CYC polymer as hereinbefore defined
10. A method of delivering a release material which comprises exposing a composition as claimed in claim 1 to an aqueous environment at a temperature below Tp.
11-13. (canceled)
14. A composition which comprises.
(1) a reaction product obtained by reacting a compound containing a Cy moiety with a compound selected from the group consisting of hyaluronic is acid, collagen, gelatin, a polysaccharide, a carbohydrate, and cyclodextran, thereby producing a reaction product containing a covalently linked Cy moiety, and
(2) a release material.
15. A composition according to claim 14 wherein the release material contains a Cy moiety.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. A method of forming a polygon image, comprising the steps of:
obtaining a plurality of polygons having normal line data as apex data and constituting a model;
sorting the plurality of polygons into polygons of a first color part and polygons of a second color part along a boundary line between said first and second color parts, according to the direction of a light source and normal lines of the plurality of polygons;
dividing polygons intersecting the boundary line along the boundary line;
sorting the divided polygons into polygons of the first color part and polygons of the second color part along the boundary line according to the direction of a light source and normal lines of the divided polygons; and
pasting up the first mono-color texture on the polygons belonging to the first color part, and the second mono-color texture on the polygons belonging to the second color part.
2. A method of forming a polygon image comprising the steps of:
obtaining a plurality of polygons having normal line data as apex data and constituting a model;
sorting the plurality of polygons into polygons of a first color part and polygons of a second color part along a boundary line according to the direction of a light source and normal lines of the plurality of polygons;
dividing polygons intersecting the boundary line along the boundary line;
sorting the divided polygons into polygons of the first color part and polygons of the second color part along the boundary line according to the direction of a light source and normal lines of the divided polygons;
pasting up the first mono-color texture on the polygons belonging to the first color part, and the second mono-color texture on the polygons belonging to the second color part; and
acquiring inner product values of the direction of a light source and normal lines of the divided polygons, wherein the polygons intersecting the boundary line are determined as polygons having different polarities of the acquired inner product values;

wherein intersectional position of a side line of a polygon intersecting the boundary line is acquired from a proportional relation with the inner product values of two apexes of the side line of the polygon intersecting the boundary lines when the inner product value is at the intersectional position is set \u201c0\u201d.
3. An image processing apparatus comprising:
control means for obtaining a plurality of polygons having normal lines as apex data and constituting a model, sorting the plurality of polygons into polygons of a first color part and polygons of a second color part along a boundary line between said first and second color parts, according to the direction of a light source and normal lines of the divided polygons,
dividing polygons intersecting the boundary line along the boundary line, and
sorting the divided polygons into polygons of the first color part and polygons of the second color part along the boundary line according to the direction of a light source and normal lines of the divided polygons; and
a rendering processor for pasting up the first mono-color texture on the polygons belonging to the first color, part and the second mono-color texture on the polygons belonging to the second color part.
4. The image processing apparatus comprising:
control means for obtaining a plurality of polygons having normal lines as apex data and constituting a model, sorting the plurality of polygons into polygons of a first color part and polygons of a second color part along a boundary line according to the direction of a light source and normal lines of the divided polygons,
dividing polygons intersecting the boundary line along the boundary line, and
sorting the divided polygons into polygons of the first color part and polygons of the second color part along the boundary line according to the direction of a light source and normal lines of the divided polygons; and
a rendering processor for pasting up the first mono-color texture on the polygons belonging to the first color, part and the second mono-color texture on the polygons belonging to the second color part;
wherein
the control means acquires inner product values of the direction of a light source and normal lines of the divided polygon, wherein the polygons intersecting the boundary line are determined as polygons having different polarities of the acquired inner product values; and
intersectional position of a side line of a polygon intersecting the boundary line is acquired from a proportional relation with the inner product values of two apexes of the side line of the polygon when the inner product at the intersectional position is set \u201c0\u201d.
5. A record medium storing a program which is executed by control means in an image processing apparatus, the program providing a control which comprises the steps of:
obtaining a plurality of polygons having normal lines as apex data and constituting a model;
sorting the plurality of polygons into polygons of a first color part and polygons of a second color part along a boundary line between said first and second color parts, according to the direction of a light source and normal lines of the plurality of polygons;
dividing polygons intersecting the boundary line along the boundary line;
sorting the divided polygons into polygons of the first color part and polygons of the second color part along the boundary line according to the direction of a light source and normal lines of the divided polygons; and
pasting up the first mono-color texture on the polygons belonging to the first color part and the second mono-color texture on the polygons belonging to the second color part.
6. A record medium having stored therein the program which is executed by control means in an image processing apparatus, the program providing a control which comprises the steps of:
obtaining a plurality of polygons having normal lines as apex data and constituting a model;
sorting the plurality of polygons into polygons of a first color part and polygons of a second color part along a boundary line according to the direction of a light source and normal lines of the plurality of polygons;
dividing polygons intersecting the boundary line along the boundary line;
sorting the divided polygons into polygons of the first color part and polygons of the second color part along the boundary line according to the direction of a light source and normal lines of the divided polygons; and
pasting up the first mono-color texture on the polygons belonging to the first color part and the second mono-color texture on the polygons belonging to the second color part;
wherein the control provided by the program stored in the record medium further comprises the step of acquiring inner product values of the direction of a light source and normal lines of the divided polygons, and wherein the polygons intersecting the boundary line are determined as polygons having different polarities of the acquired inner product values;
wherein intersectional position of a side of a polygon intersecting the boundary line is acquired from a proportional relation with the inner product values of two apexes of side line of the polygon when the inner product value at the intersectional position is set \u201c0\u201d.
7. The method of forming a polygon image according to claim 1, further comprising the step of acquiring inner product values of the direction of a light source and normal lines of the divided polygons, wherein the polygons intersecting the boundary line are determined as polygons having different polarities of the acquired inner product values.
8. The imaging processing apparatus according to claim 3, wherein the control means acquires inner product values of the direction of a light source and normal lines of the divided polygon, wherein the polygons intersecting the boundary line are determined as polygons having different polarities of the acquired inner product values.
9. The record medium according to claim 5, wherein the control provided by the program stored in the record medium further comprises the step of acquiring inner product values of the direction of a light source and normal lines of the divided polygons, and wherein the polygons intersecting the boundary line are determined as polygons having different polarities of the acquired inner product values.