Author: claimsbot

1. A hydraulic transaxle comprising:
a housing having a fluid sump therein, the housing including directly joined housing parts;
a pair of first wheels disposed at one of front and rear portions of the vehicle;
an axle disposed in the housing;
a center section entirely disposed in the housing, the center section being formed therein with a pair of fluid ducts;
a hydraulic pump disposed in the housing, fitted to the center section, and communicating with the fluid ducts; and
a hydraulic motor disposed in the housing, fitted to the center section, and communicating with the fluid ducts so as to be fluidly connected to the hydraulic pump, the hydraulic motor including a cylindrical motor shaft relatively rotatably and coaxially penetrated by the axle and drivingly connected to the axle.
2. The hydraulic transaxle according to claim 1, further comprising:
another axle disposed in the housing;
a differential unit disposed in the housing so as to differentially connect the axles to each other; and
a brake disposed in the housing between the center section and the differential unit so as to brake the axles.
3. A hydraulic drive system, comprising:
a first hydraulic transaxle including
a first housing having a fluid sump therein; the first housing including directly joined housing parts,
a first axle disposed in the first housing,
a first center section entirely disposed in the first housing, the first center section being formed therein with a pair of fluid ducts,
a hydraulic pump disposed in the first housing, fitted to the first center section, and communicating with the fluid ducts in the first center section, and
a first hydraulic motor disposed in the first housing, fitted to the first center section, and communicating with the fluid ducts in the first center section so as to be fluidly connected to the hydraulic pump, the first hydraulic motor including a first cylindrical motor shaft relatively rotatably and coaxially penetrated by the first axle and drivingly connected to the first axle; and

a second hydraulic transaxle including
a second housing having a fluid sump therein; the second housing including mutually joined housing parts,
a second axle disposed in the second housing,
a second center section disposed in the second housing, the second center section being formed therein with a pair of fluid ducts, and
a second hydraulic motor disposed in the second housing, fitted to the second center section, and communicating with the fluid ducts in the second center section so as to be fluidly connected to the hydraulic pump, the hydraulic motor including a second cylindrical motor shaft relatively rotatably and coaxially penetrated by the second axle and drivingly connected to the second axle.
4. A hydraulic transaxle comprising:
a center section formed therein with a pair of fluid ducts;
a variable displacement hydraulic pump fitted to the center section so as to communicate with the fluid ducts in the center section;
a hydraulic motor fitted to the center section so as to communicate with the fluid ducts to be fluidly connected to the hydraulic pump, wherein, when the hydraulic pump delivers hydraulic fluid to the hydraulic motor, one of the fluid ducts is higher-pressurized, and the other fluid duct is lower-pressurized;
a pump control device for controlling a displacement of the hydraulic pump, the pump control device being shiftable between a neutral position for stopping fluid-delivery of the hydraulic pump and a maximum displacement position for making the hydraulic pump deliver the maximum amount of hydraulic fluid to the hydraulic motor, wherein a shift range of the pump control device between the neutral position and the maximum displacement position is divided into a leak range and a leak-prevention range, the leak range being extended from the neutral position to a limit position toward the maximum displacement position, and the leak-prevention range being extended between the limit position and the maximum displacement range;
a detent device for temporarily holding the pump control device at the neutral position; and
a leak valve interlockingly connected to the detent device, wherein the leak valve is disposed at an opened-valve position for leaking out a part of hydraulic fluid in the higher-pressurized fluid duct when the pump control device is disposed in the leak range, and the leak valve is disposed at a closed-valve position for preventing hydraulic fluid in the higher-pressurized fluid duct from leaking when the pump control device is disposed in the leak-prevention range.
5. The hydraulic transaxle according to claim 4, wherein the detent device comprises the pump control device and a tip of the leak valve shaped to fit each other, and wherein the leak valve is slidably fitted into the center section, and extended at the tip thereof outward from the center section toward the pump control device.
6. The hydraulic transaxle according to claim 4, further comprising:
a lost motion mechanism interposed between the leak valve and the pump control device, wherein, when the pump control device is shifted into the leak-prevention range from the leak range, the lost motion mechanism acts so as to delay the shift of the leak valve from the opened-valve position to the closed-valve position.
7. The hydraulic transaxle according to claim 6, the lost motion mechanism comprising:
a first spring abutting at one end thereof against one end portion of the leak valve, and fixed at the other end thereof to a certain position; and
a second spring abutting against one end thereof against another end portion of the leak valve, and engaging at the other end thereof to the pump control device.
8. The hydraulic transaxle according to claim 4, the leak valve including:
a cylinder having an outer peripheral surface formed therein with a groove, the cylinder being slidably fitted in the center section so as to be shiftable between the opened-valve position and the closed-valve position, wherein, when the cylinder is disposed at the opened-valve position, the groove is interposed between the higher-pressurized fluid duct and the lower-pressurized fluid duct so as to partly lead hydraulic fluid from the higher-pressurized fluid duct to the lower-pressurized fluid duct;
biasing means for biasing the cylinder toward the closed-valve position; and
a piston interlockingly connected to the pump control device, and disposed in the cylinder so as to have fluid between the piston and the cylinder, wherein, when the pump control device is shifted in the leak-prevention range by an operation force exceeding a biasing force of the biasing means applied onto the cylinder, the piston and the cylinder integrally move with a constant amount of the fluid therebetween so as to set the cylinder at the opened-valve position, and then the cylinder returns to the closed-valve position by the biasing force of the biasing means, and wherein, when the pump control device is shifted in the leak-prevention range by an operation force less than the biasing force of the biasing means, the piston slides in the cylinder relative to the cylinder so as to keep the cylinder at the closed-valve position.
9. The hydraulic transaxle according to claim 4, further comprising:
a fluid sump in which the center section is submerged, wherein the leak valve disposed at the opened-valve position leads the part of the hydraulic fluid from the higher-pressurized fluid duct to the fluid sump.
10. The hydraulic transaxle according to claim 4, wherein the leak valve disposed at the opened-valve position leads the part of the hydraulic fluid from the higher-pressurized fluid duct to the lower-pressurized fluid duct.
11. The hydraulic transaxle according to claim 10, the leak valve including auxiliary valve means, wherein, when the leak valve is disposed at the closed-valve position, and when hydraulic pressure of fluid in either the higher-pressurized or lower-pressurized fluid duct is suddenly increased, the auxiliary valve means can be opened to pass increased fluid from the fluid duct whose hydraulic pressure is suddenly increased to the other fluid duct.
12. The hydraulic transaxle according to claim 11, the leak valve including a first leak valve and a second leak valve provided with the respective auxiliary valve means, wherein both of the first and second leak valves are disposed at respective opened-valve positions for leaking out a part of hydraulic fluid in the higher-pressurized fluid duct when the pump control device is disposed in the leak range, and wherein the first and second leak valves are disposed at the respective closed-valve positions for preventing hydraulic fluid in the higher-pressurized fluid duct from leaking when the pump control device is disposed in the leak-prevention range.
13. The hydraulic transaxle according to claim 12, wherein the auxiliary valve means of one of the first and second leak valves can be opened during forward traveling of a vehicle, and the auxiliary valve means of the other second or first leak valve can be opened during backward traveling of the vehicle.
14. The hydraulic transaxle according to claim 12, further comprising:
a lost motion mechanism interposed between at least one of the first and second leak valves and the pump control device, wherein, when the pump control device is shifted into the leak-prevention range from the leak range, the lost motion mechanism acts so as to delay the shift of the leak valve from the opened-valve position to the closed-valve 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. The pump apparatus for conveying a gas-liquid mixture comprising
a. a first pump for conveying gas having
i. a first pump chamber and
ii. a first impeller,

b. a second pump for conveying liquid having
i. a second pump chamber and
ii. a second impeller, and

c. a drive device with a rotary-driveable drive shaft for driving the pumps,
d. the drive shaft being connected to both impellers.
2. The pump apparatus according to claim 1, wherein the first pump is configured as a liquid ring pump.
3. The pump apparatus according to claim 1, wherein the second pump is self-priming.
4. The pump apparatus according to claim 1, wherein the second pump is configured as a side channel pump.
5. The pump apparatus according to claim 1, further comprising at least one liquid separator provided for separating the conveyed liquid from the conveyed gas.
6. The pump apparatus according to claim 5, wherein the at least one liquid separator is positioned on the suction side with respect to the pumps.
7. The pump apparatus according to claims 6, further comprising a second liquid separator positioned on the outlet side.
8. The pump apparatus according to claim 7, wherein at least one of said separators is configured as a gravity separator.

1-20. (canceled)
21. A computer-implemented method of anatomical modeling, the method comprising:
determining, using a processor, a patient-specific anatomic model and a biomechanical model associated with one or more blood vessels of a patient as characterized by an imaging state;
determining a state of increased blood flow through the one or more blood vessels of the patient, the state of increased blood flow being different from the imaging state;
modifying the biomechanical model based on a geometrical change to the anatomic model induced by the state of increased blood flow; and
performing a fluid dynamics simulation based on the modified biomechanical model and the geometrical change to the anatomic model.
22. The method of claim 21, further comprising:
determining one or more parameters that characterize physiologic conditions, boundary conditions, or a combination thereof associated with the state of increased blood flow.
23. The method of claim 22, further comprising:
determining at least one of a difference in pressure, heart rate, resistance, or geometry associated with the physiologic conditions, boundary conditions, or a combination thereof.
24. The method of claim 21, wherein the state of increased blood flow is associated with medication or patient activity.
25. The method of claim 21, further comprising:
determining elastic properties of the one or more blood vessels associated with the baseline physiological state,
wherein the modified biomechanical model is based on elastic properties of the one or more blood vessels associated with the baseline physiological state.
26. The method of claim 21, wherein the fluid dynamics simulation includes a simulation of blood flow and pressure.
27. The method of claim 21, further comprising:
extracting segments of the one or more blood vessels from the patient-specific anatomic model, wherein the biomechanical model includes a model of the wall of each of the segments.
28. The method of claim 21, further comprising:
creating a second patient-specific anatomic model based on the modified biomechanical model and the state of increased blood pressure.
29. A system for anatomical modeling, the system comprising:
a data storage device storing instructions for anatomical modeling; and
a processor configured to execute the instructions to perform a method including:
determining, using a processor, a patient-specific anatomic model and a biomechanical model associated with one or more blood vessels of a patient as characterized by an imaging state;
determining a state of increased blood flow through the one or more blood vessels of the patient, the state of increased blood flow being different from the imaging state;
modifying the biomechanical model based on a geometrical change to the anatomic model induced by the state of increased blood flow; and
performing a fluid dynamics simulation based on the modified biomechanical model and the geometrical change to the anatomic model.
30. The system of claim 29, wherein the system is further configured for:
determining one or more parameters that characterize physiologic conditions, boundary conditions, or a combination thereof associated with the state of increased blood flow.
31. The system of claim 30, wherein the system is further configured for:
determining at least one of a difference in pressure, heart rate, resistance, or geometry associated with the physiologic conditions, boundary conditions, or a combination thereof.
32. The method of claim 29, wherein the state of increased blood flow is associated with medication or patient activity.
33. The system of claim 29, wherein the system is further configured for:
determining elastic properties of the one or more blood vessels associated with the baseline physiological state,
wherein the modified biomechanical model is based on elastic properties of the one or more blood vessels associated with the baseline physiological state.
34. The system of claim 29, wherein the fluid dynamics simulation includes a simulation of blood flow and pressure.
35. The system of claim 29, wherein the system is further configured for:
extracting segments of the one or more blood vessels from the patient-specific anatomic model, wherein the biomechanical model includes a model of the wall of each of the segments.
36. The system of claim 29, wherein the system is further configured for:
creating a second patient-specific anatomic model based on the modified biomechanical model and the state of increased blood pressure.
37. A non-transitory computer readable medium for use on a computer system containing computer-executable programming instructions for performing a method of anatomical modeling, the method comprising:
determining, using a processor, a patient-specific anatomic model and a biomechanical model associated with one or more blood vessels of a patient as characterized by an imaging state;
determining a state of increased blood flow through the one or more blood vessels of the patient, the state of increased blood flow being different from the imaging state;
modifying the biomechanical model based on a geometrical change to the anatomic model induced by the state of increased blood flow; and
performing a fluid dynamics simulation based on the modified biomechanical model and the geometrical change to the anatomic model.
38. The non-transitory computer readable medium of claim 37, the method further comprising:
determining one or more parameters that characterize physiologic conditions, boundary conditions, or a combination thereof associated with the state of increased blood flow.
39. The non-transitory computer readable medium of claim 38, the method further comprising:
determining at least one of a difference in pressure, heart rate, resistance, or geometry associated with the physiologic conditions, boundary conditions, or a combination thereof.
40. The non-transitory computer readable medium of claim 37, wherein the state of increased blood flow is associated with medication or patient activity.

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. An apparatus, comprising:
at least one processor;
at least one memory including computer program code, the memory and the computer program code configured to, working with the processor, cause the apparatus to:
receive an indication of availability of proximity-based communication with a separate apparatus;
receive historical operation condition information that comprises historical apparatus environmental condition information and historical separate apparatus environmental condition information;
determine, based, at least in part, on correlation between the historical apparatus environmental condition information and the historical separate apparatus environmental condition information, an operational nexus indicative of copresence of the apparatus and the separate apparatus across a plurality of different operation conditions; and
cause coupling of the apparatus with the separate apparatus based, at least in part, on the operational nexus.
2. The apparatus of claim 1, wherein the historical operation condition information indicates availability of the proximity-based communication with the separate apparatus and at least one other historical operation condition information.
3. The apparatus of claim 2, wherein the other historical operation condition information to comprises network information indicative of mobility, and the operational nexus is based, at least in part, on availability of the proximity-based communication with the separate apparatus corresponding to a plurality of different network information.
4. The apparatus of claim 2, wherein the other historical operation condition information comprises location information indicative of mobility, and the operational nexus is based, at least in part, on availability of the proximity-based communication with the separate apparatus corresponding to a plurality of different locations indicated by the location information.
5. The apparatus of claim 1, wherein the historical separate apparatus operation condition information and the historical apparatus operation condition information indicate access to a common network, and the operational nexus is based, at least in part on the commonality of the common network.
6. The apparatus of claim 1, wherein the historical separate apparatus operation condition information comprises information indicative of availability of proximity-based communication with the apparatus and the historical apparatus operation condition information comprises information indicative of availability of proximity-based communication with the separate apparatus, and the operational nexus is based, at least in part, on correspondence between the historical separate apparatus operation condition information indicative of availability of proximity-based communication with the apparatus and the historical apparatus operation condition information indicative of availability of proximity-based communication with the separate apparatus.
7. The apparatus of claim 1, wherein the historical separate apparatus operation condition information and the historical apparatus operation condition information comprise motion information, and the operational nexus is based, at least in part on the correlation between the motion information of the historical apparatus operation condition information and the motion information of the historical separate apparatus operation condition information.
8. The apparatus claim 1, wherein the apparatus is a mobile phone.
9. A method comprising:
receiving, by an apparatus, an indication of availability of proximity-based communication with a separate apparatus;
receiving historical operation condition information that comprises historical apparatus environmental condition information and historical separate apparatus environmental condition information;
determining, based, at least in part, on correlation between the historical apparatus environmental condition information and the historical separate apparatus environmental condition information, an operational nexus indicative of copresence of the apparatus and the separate apparatus across a plurality of different operation conditions; and
causing coupling of the apparatus with the separate apparatus based, at least in part, on the operational nexus.
10. The method of claim 9, wherein the historical operation condition information indicates availability of the proximity-based communication with the separate apparatus and at least one other historical operation condition information.
11. The method of claim 10, wherein the other historical operation condition information comprises network information indicative of mobility, and the operational nexus is based, at least in part, on availability of the proximity-based communication with the separate apparatus corresponding to a plurality of different network information.
12. The method of claim 10, wherein the other historical operation condition information comprises location information indicative of mobility, and the operational nexus is based, at least in part, on availability of the proximity-based communication with the separate apparatus corresponding to a plurality of different locations indicated by the location information.
13. The method of claim 9, wherein the historical separate apparatus operation condition information and the historical apparatus operation condition information indicate access to a common network, and the operational nexus is based, at least in part on the commonality of the common network.
14. The method of claim 9, wherein the historical separate apparatus operation condition information comprises information indicative of availability of proximity-based communication with the apparatus and the historical apparatus operation condition information comprises information indicative of availability of proximity-based communication with the separate apparatus, and the operational nexus is based, at least in part, on correspondence between the historical separate apparatus operation condition information indicative of availability of proximity-based communication with the apparatus and the historical apparatus operation condition information indicative of availability of proximity-based communication with the separate apparatus.
15. At least one non-transitory computer-readable medium encoded with instructions that, when executed by a processor, perform:
receiving, by an apparatus, an indication of availability of proximity-based communication with a separate apparatus;
receiving historical operation condition information that comprises historical apparatus environmental condition information and historical separate apparatus environmental condition information;
determining, based, at least in part, on correlation between the historical apparatus environmental condition information and the historical separate apparatus environmental condition information, an operational nexus indicative of copresence of the apparatus and the separate apparatus across a plurality of different operation conditions; and
causing coupling of the apparatus with the separate apparatus based, at least in part, on the operational nexus.
16. The medium of claim 15, wherein the historical operation condition information indicates availability of the proximity-based communication with the separate apparatus and at least one other historical operation condition information.
17. The medium of claim 16, wherein the other historical operation condition information comprises network information indicative of mobility, and the operational nexus is based, at least in part, on availability of the proximity-based communication with the separate apparatus corresponding to a plurality of different network information.
18. The medium of claim 16, wherein the other historical operation condition information comprises location information indicative of mobility, and the operational nexus is based, at least in part, on availability of the proximity-based communication with the separate apparatus corresponding to a plurality of different locations indicated by the location information.
19. The medium of claim 15, wherein the historical separate apparatus operation condition information comprises information indicative of availability of proximity-based communication with the apparatus and the historical apparatus operation condition information comprises information indicative of availability of proximity-based communication with the separate apparatus, and the operational nexus is based, at least in part, on correspondence between the historical separate apparatus operation condition information indicative of availability of proximity-based communication with the apparatus and the historical apparatus operation condition information indicative of availability of proximity-based communication with the separate apparatus.
20. The medium of claim 15, wherein the historical separate apparatus operation condition information and the historical apparatus operation condition information comprise motion information, and the operational nexus is based, at least in part on the correlation between the motion information of the historical apparatus operation condition information and the motion information of the historical separate apparatus operation condition information.