Author: claimsbot

1. An information generating device for generating moving-path-related information for displaying moving path detail information relating to details of a moving path, the moving path detail information displayed relative to the moving path that is displayed in different scales in a display area, comprising:
an identifying section for identifying the moving path of which details are shown by the predetermined moving path detail information;
a moving path position recognizer for recognizing a display position in the different scales of the moving path identified by the identifying section;
a detail position setting section for setting the display position in the different scales of the moving path detail information of the moving path identified by the identifying section such that at least one of the moving path detail information is aligned and displayed with the moving path in the display area; and
a moving-path-related information generating section for generating the moving-path-related information for displaying the moving path detail information at the display position set by the detail position setting section.
2. The information generating device according to claim 1, further comprising:
a detail position information generating section for generating detail position information relating to the display position of the moving path detail information set by the detail position setting section, wherein
the moving-path-related information generating section generates the moving-path-related information having the moving path detail information and the detail position information.
3. The information generating device according to claim 1, wherein
the moving path is represented by a plurality of links connected to each other with nodes therebetween, each node representing a predetermined site point,
each link of the plurality of links is associated with the moving path detail information of the moving path that the link represents, and
when recognizing that the moving path detail information of each of the plurality of links is the same, the identifying section for identifying the moving path identifies the moving path represented by the plurality of links as the moving path of which details are shown by the predetermined moving path detail information.
4. The information generating device according to claim 1, wherein
the detail position setting section sets the display position of the moving path detail information at a predetermined interval.
5. The information generating device according to claim 4, wherein
the predetermined interval is the same in all the different scales.
6. The information generating device according to claim 4, further comprising:
a moving path length recognizer for recognizing a length of the moving path identified by the identifying section for identifying the moving path, wherein
when recognizing the length of the moving path which is recognized by the moving path length recognizer is longer than a length of the moving path corresponding to the predetermined interval, the detail position setting section sets the display position of the moving path detail information at the predetermined interval.
7. The information generating device according to claim 6, wherein
when recognizing the length of the moving path which is recognized by the moving path length recognizer is shorter than the length of the moving path corresponding to the predetermined interval, the detail position setting section sets the display position of the moving path detail information at a position along the moving path.
8. The information generating device according to claim 6, wherein
the moving path is represented by the plurality of links connected to each other with the nodes therebetween, each node representing a predetermined site point,
the node is associated with coordinate information of coordinates of the display position of the site point corresponding to the node,
the link is associated with connection node identification information for identifying the node connecting the link to another link, and
the moving path length recognizer identifies the nodes provided at ends of the plurality of links based on the connection node identification information of the plurality of links that represent the moving path identified by the identifying section for identifying the moving path, and recognizes the length of the moving path by calculating a total length of the plurality of links based on the coordinate information of the identified nodes.
9. The information generating device according to claim 1, wherein
when recognizing that the moving path detail information displayed at the set display position overlaps on target object detail information relating to details of a target object, the target object detail information displayed so as to correspond to a position of the target object that exist at a predetermined position, the detail position setting section sets the display position of the moving path detail information to another position so as not overlap on the target object detail information.
10. The information generating device according to claim 1, wherein
the moving path detail information is information for displaying a number representing the moving path so as to superimpose on a predetermined graphic, and
the detail position setting section sets the display position of the moving path detail information at a position so as to superimpose on the moving path.
11. The information generating device according to claim 1, wherein
the moving path detail information is information for displaying a name of the moving path, and
the detail position setting section sets the display position of the moving path detail information at a position so as not to superimpose on the moving path.
12. The information generating device according to claim 11, wherein
when recognizing that a name of the moving path is shown by a plurality of characters, the detail position setting section sets the display position of the moving path detail information such that a distance from each of the plurality of characters to the moving path is the same.
13. The information generating device according to claim 1, wherein
the moving path is a road on which a mobile body can move.
14. The information generating device according to claim 13, wherein
the moving path detail information is information for displaying details of the road relative to the road displayed in the display area of a display unit mounted in the mobile body.
15. An information generating method for generating moving-path-related information for displaying moving path detail information relating to details of a moving path, the moving path detail information displayed relative to the moving path that is displayed in different scales in a display area with a computing unit, comprising:
identifying the moving path of which details are shown by the moving path detail information,
recognizes a display position of the identified moving path in the different scales,
setting the display position of the moving path detail information of the identified moving path in the different scales at a position such that at least one of the moving path detail information is aligned and displayed with the moving path, and
generating the moving-path-related information for displaying the moving path detail information at the set display position.
16. An information generating program stored in a storing medium in a readable manner by a computing unit, the program operating the computing unit to function as an information generating device for generating moving-path-related information for displaying moving path detail information relating to details of a moving path, the moving path detail information displayed relative to the moving path that is displayed in different scales in a display area, wherein
the information generating device has:
an identifying section for identifying the moving path of which details are shown by the predetermined moving path detail information;
a moving path position recognizer for recognizing a display position in the different scales of the moving path identified by the identifying section;
a detail position setting section for setting the display position in the different scales of the moving path detail information of the moving path identified by the identifying section; and
a moving-path-related information generating section for generating the moving-path-related information for displaying the moving path detail information at the display position set by the detail position setting section.
17. An information generating program stored in a storing medium in a readable manner by a computing unit, the program operating the computing unit to execute an information generating method for generating moving-path-related information for displaying moving path detail information relating to details of a moving path, the moving path detail information displayed relative to the moving path that is displayed in different scales in a display area with a computing unit, wherein
the information generating device has the computing unit to perform:
identifying the moving path of which details are shown by the moving path detail information,
recognizing a display position of the identified moving path in the different scales,
setting the display position of the moving path detail information of the identified moving path in the different scales at a position such that at least one of the moving path detail information is aligned and displayed with the moving path, and
generating the moving-path-related information for displaying the moving path detail information at the set display position.
18. A storing medium storing an information generating program in a readable manner by a computing unit, the program operating the computing unit to function as an information generating device for generating moving-path-related information for displaying moving path detail information relating to details of a moving path, the moving path detail information displayed relative to the moving path that is displayed in different scales in a display area, wherein
the information generating device has:
an identifying section for identifying the moving path of which details are shown by the predetermined moving path detail information;
a moving path position recognizer for recognizing a display position in the different scales of the moving path identified by the identifying section;
a detail position setting section for setting the display position in the different scales of the moving path detail information of the moving path identified by the identifying section such that at least one of the moving path detail information is aligned and displayed with the moving path in the display area; and
a moving-path-related information generating section for generating the moving-path-related information for displaying the moving path detail information at the display position set by the detail position setting section.
19. A storing medium storing an information generating program in a readable manner by a computing unit, the program operating the computing unit to execute an information generating method for generating moving-path-related information for displaying moving path detail information relating to details of a moving path, the moving path detail information displayed relative to the moving path that is displayed in different scales in a display area, wherein
the information generating device has the computing unit to perform:
identifying the moving path of which details are shown by the moving path detail information,
recognizing a display position of the identified moving path in the different scales,
setting the display position of the moving path detail information of the identified moving path in the different scales at a position such that at least one of the moving path detail information is aligned and displayed with the moving path, and
generating the moving-path-related information for displaying the moving path detail information at the set display position.

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 memory device structure comprising:
forming a non-conductive spacer material on a top electrode of a magnetic tunnel junction structure, wherein a dielectric material is disposed between the top electrode and a bottom electrode of the magnetic tunnel junction structure;
forming a highly selective material on the non-conductive spacer material; and
etching the bottom electrode.
2. The method of claim 1 further comprising wherein the memory device comprises a MRAM memory device.
3. The method of claim 1 further comprising wherein the highly selective material comprises a metal material.
4. The method of claim 1 further comprising wherein the dielectric material comprises a tunnel barrier material.
5. The method of claim 1 further comprising wherein the top and bottom electrodes comprise a ferromagnetic material.
6. The method of claim 1 further comprising wherein a portion of the bottom electrode is re-deposited on the highly selective material.
7. The method of claim 1 further comprising wherein an etch rate of the bottom electrode is much higher than an etch rate of the highly selective material.
8. The method of claim 1 wherein the bottom electrode and the top electrode comprise non-volatile materials.
9. The method of claim 1 further comprising wherein the non-conductive spacer material comprises a thickness of about 1 nanometers to about 20 nanometers, and wherein the highly selective material comprises a thickness of about 1 nanometers to about 20 nanometers.
10. A method of forming a MRAM device, comprising:
forming a highly selective material on an insulator spacer material, wherein the insulator spacer material is disposed on sidewalls of a top electrode of a magnetic tunnel junction device and on a sidewall and top portion of a hardmask material, wherein the hardmask material is disposed on a top portion of the top electrode; and
etching a bottom electrode disposed under the top electrode to expose the hardmask material, wherein the insulator spacer material is not removed from the sidewall of the top electrode.
11. The method of claim 10 further comprising wherein the highly selective material protects the insulator spacer material from being etched during the bottom electrode etch process.
12. The method of claim 10 further comprising wherein the top and bottom electrode are not shorted to each other after the bottom electrode etch process.
13. The method of claim 10 further comprising wherein the bottom electrode and the top electrode are separated from each other by a tunnel barrier layer.
14. The method of claim 10 further comprising wherein the bottom electrode and the insulator spacer material are not highly selective to one another during the bottom electrode etch process.
15. A memory device structure comprising:
a non-conductive spacer material disposed on a sidewall of top electrode of a magnetic tunnel junction structure, wherein a dielectric material is disposed between the top electrode and a bottom electrode of the magnetic tunnel junction structure; and
a highly selective material disposed on the non-conductive spacer material.
16. The structure of claim 15 further comprising wherein the highly selective material comprises a metallic material.
17. The structure of claim 15 further comprising wherein the non-conductive spacer material is a continuous layer disposed on the sidewall of the top electrode.
18. The structure of claim 15 further comprising wherein the dielectric material comprises a tunnel barrier material.
19. The structure of claim 15 further comprising wherein the top and bottom electrodes comprise ferromagnetic materials.
20. The structure of claim 15 further comprising wherein the non-conductive spacer material comprises a thickness of about 1 nanometer to about 20 nanometers, and wherein the highly selective material comprises a thickness of about 1 nanometer to about 20 nanometers
21. The structure of claim 15 further comprising wherein the memory device comprises a portion of a MRAM device.
22. The structure of claim 15 further comprising a system comprising:
a bus communicatively coupled to the memory device structure; and
an eDRAM communicatively coupled to the bus.

1. A method of manufacturing a rotatable turbine engine component, the component having a direction of maximum tensile stress during normal engine operation, comprising the steps of:
providing a plurality of biased ceramic plies, each biased ply comprising ceramic fiber tows, the tows woven in a first warp direction and a second weft direction, the second weft direction lying at a preselected angular orientation with respect to the first warp direction, wherein a greater number of tows are woven in the first warp direction than in the second weft direction, and wherein a number of tows in the second weft direction allows the biased plies to maintain their structural integrity when handled;
laying up the plurality of biased plies in a preselected arrangement to form a rotatable component shape, wherein a preselected number of the plurality of biased plies are oriented such that the orientation of the first warp direction of a preselected number of the plurality of biased plies lie about in the direction of maximum tensile stress during normal engine operation, wherein normal engine operation includes rotation of the rotatable turbine engine component;
rigidizing the component shape with a layer of BN and a layer of SiC to form a coated component preform using chemical vapor infiltration;
partially densifying the coated component preform using carbon-containing slurry; and
further densifying the coated component preform with at least silicon to form a rotatable ceramic matrix composite aircraft engine component with biased architecture.
2. The method of claim 1, wherein a ratio of a number of tows in the first warp direction to the number of tows in the second weft direction is at least about 2:1.
3. The method of claim 1, wherein the plies are silicon carbide containing plies.
4. The method of claim 2, wherein the turbine engine component is a turbine blade.
5. The method of claim 2, wherein the turbine engine component is a cooled turbine nozzle.
6. The method of claim 2, wherein the turbine engine component is an uncooled turbine nozzle.
7. A method of manufacturing a rotatable ceramic matrix composite aircraft engine component, the component having a direction of maximum tensile stress during normal engine operation, comprising the steps of:
providing a plurality of prepreg ceramic plies, the plies comprising prepreg ceramic fiber tows, the tows in each ply lying adjacent to one another in a planar arrangement such that each ply has a unidirectional orientation;
laying up the plurality of prepreg ceramic cloth plies in a preselected arrangement to form a rotatable turbine blade shape such that a preselected number of outermost plies are oriented at about 0\xb0 with respect to the direction of maximum tensile stress of the turbine engine component during normal engine operations wherein normal engine operation includes rotation of the rotatatable turbine engine component;
heating the turbine blade shape to form a ceramic preform; and
densifying the turbine blade preform with at least silicon to form a rotatable ceramic matrix composite turbine blade.

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 dispensing a volatile material for an operating cycle the method comprising the steps of:
providing power to a volatile material diffuser having a diffusion element;
operating the diffusion element for a first period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a first duty cycle having a first on time and a first off time;
operating the diffusion element for a final period of time, wherein the diffusion element is continuously activated and deactivated during the final period of time at a final duty cycle having a final on time and a final off time; and
ending the operating cycle after the final period of time;
wherein the operating cycle comprises the first period of time and the final period of time, the first duty cycle is less than about 100% such that the first off time is greater than about 0 seconds and the final duty cycle is about 100% such that the final off time is about 0 seconds and wherein the final period of time begins after the first period of time has finished and the final period of time comprises at least about 60% of a total time of the operating cycle.
2. The method of claim 1, wherein the first duty cycle is about 20% and the first period of time is about 5 hours.
3. The method of claim 2, further including the steps of:
operating the diffusion element for a seventh period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a seventh duty cycle;
operating the diffusion element for a eight period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a eight duty cycle; and
operating the diffusion element for a ninth period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a ninth duty cycle.
4. The method of claim 3, wherein the first duty cycle is about 10%, the second duty cycle is about 20%, the third duty cycle is about 30%, the fourth duty cycle is about 40%, the fifth duty cycle is about 50%, the sixth duty cycle is about 60%, the seventh duty cycle is about 70%, the eight duty cycle is about 80%, and the ninth duty cycle is about 90%.
5. The method of claim 4, wherein the first period of time is about 24 hours, the second period of time is about 24 hours, the third period of time is about 96 hours, the fourth, fifth, sixth, seventh, eight, and ninth periods of time are about 48 hours, and the final period of time is about 648 hours.
6. The method of claim 1, wherein the first duty cycle is about 10% and the first period of time is about 24 hours.
7. The method of claim 1, further including the steps of:
operating the diffusion element for a second period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a second duty cycle;
operating the diffusion element for a third period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a third duty cycle;
operating the diffusion element for a fourth period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a fourth duty cycle;
operating the diffusion element for a fifth period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a fifth duty cycle; and
operating the diffusion element for a sixth period of time, wherein the diffusion element is continuously activated and deactivated during the period of time at a sixth duty cycle.
8. The method of claim 7, wherein the first duty cycle is about 20%, the second duty cycle is about 33%, the third duty cycle is about 50%, the fourth duty cycle is about 66%, the fifth duty cycle is about 80%, and the sixth duty cycle is about 90%.
9. The method of claim 8, wherein the first time period is about 5 hours, the second time period is about 5 hours, the third time period is about 14 hours, the fourth time period is about 96 hours, the fifth time period is about 120 hours, the sixth time period is about 120 hours, and the final time period is about 720 hours.
10. A method of dispensing a volatile material, the method comprising the steps of:
providing power to a volatile material diffuser having a diffusion element;
operating the diffusion element for a first period of time, wherein the diffusion element is continuously activated and deactivated during the first period of time at a first duty cycle;
interrupting operation of the diffusion element during the first period of time to operate the diffusion element at a second duty cycle for an interrupt period of time; and
resuming operation of the diffusion element at the first duty cycle after the interrupt period of time;
wherein the first duty cycle is greater than 0% and less than 100% and the second duty cycle is 100%.
11. The method of claim 10, further including the step of returning to the method of claim 10 after the interrupt period if time and continuing operation from a point at which operation was interrupted.
12. The method of claim 10, wherein the second duty cycle is 100%.
13. The method of claim 10, wherein the interrupt period of time is between about 5 minutes and about 4 hours.
14. The method of claim 13, wherein the step of interrupting occurs after a random period of time.
15. A method of dispensing a volatile material, the method comprising the steps of:
providing power to a volatile material diffuser having a diffusion element;
generating a random number using a random number generator;
multiplying the random number by a time factor to determine a first period of time;
operating the diffusion element for the first period of time, wherein the diffusion element is continuously activated and deactivated during the first period of time at a first duty cycle;
interrupting operation of the diffusion element during the first period of time to operate the diffusion element at a second duty cycle for an interrupt period of time; and
resuming operation of the diffusion element at the first duty cycle after the interrupt period of time;
wherein during the first period of time when the first duty cycle is utilized, the diffusion element is alternatingly turned on and off with the on periods being greater than 0% and less than 100% and, during the interrupt period of time when the second duty cycle is utilized, the diffusion element is continuously on.
16. The method of claim 15, wherein the interrupt period of time is between about 5 minutes and about 4 hours.
17. The method of claim 16, wherein the step of interrupting is repeated at least once.