Author: claimsbot

1. A structured abrasive article comprising: an extensible base member; a three-dimensional element including abrasive particles and binder therefore; and a resin layer that binds the extensible base member and the three-dimensional element.
2. The structured abrasive article according to claim 1, wherein the resin layer is a layer made from resin that can be formed in a continuous layer even without a core material.
3. The structured abrasive article according to claim 1, wherein the resin layer is a layer made from resin having an elastic modulus at 25\xb0 C. in a range from 1.0\xd7106 to 1.0\xd7108 Pa.
4. The structured abrasive article according to claim 1, wherein the resin layer is tacky at 25\xb0 C.
5. The structured abrasive article according to claim 1, wherein the resin layer bonds the three-dimensional element and the extensible base member to form a film shape.
6. A method of manufacturing a structured abrasive article according to claim 2, comprising:
a filling step of filling a mold having a plurality of depressions with an abrasive material composition including abrasive particles and hardening resin;
a bonding step of bonding to the resin layer the abrasive material composition filled in the mold; and
a hardening step of hardening the abrasive material composition to form on the resin layer the three-dimensional element including the abrasive particles.
7. The structured abrasive article according to claim 1, wherein the extensible base member includes voids on a surface on the resin layer side, and the voids are filled with a resin that constitutes the resin layer.
8. A method of manufacturing a structured abrasive article according to claim 7 comprising:
an application step of applying a hardening resin composition to one surface of the extensible base member so as to fill the voids;
a resin layer forming step of forming the resin layer made from the resin composition by hardening the resin composition applied in the application step;
a filling step of filling a mold having a plurality of depressions with an abrasive material composition including abrasive particles and hardening resin;
a bonding step of bonding the abrasive material composition with which the mold has been filled to the resin layer; and
a hardening step of hardening the abrasive material composition and forming the three-dimensional element including the abrasive particles on the resin layer.
9. A method of manufacturing a structured abrasive article according to claim 7 comprising:
a first filling step of filling an abrasive material composition including abrasive particles and hardening resin into a mold having a plurality of depressions;
a second filling step of further filling the mold that has been filled with the abrasive material composition with a hardening resin composition;
a bonding step of bonding the resin composition that has been filled in the mold to one surface of the extensible base member, and filling the voids in the extensible base member with the resin composition; and
a hardening step of hardening the resin composition and the abrasive material composition, and forming on one surface of the extensible base member the resin layer made from the resin composition and the three-dimensional element including the abrasive particles.

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 sharing data in a computer system, said computer system comprising a first computer, a second computer, and a storage system comprising a disk control unit, a first disk unit, a second disk unit, and a third disk unit, the method comprising:
forming a first duplex state between said first disk unit and said second disk unit, wherein said disk control unit, in response to a write request from said first computer, stores write data associated therewith to both said first disk unit and to said second disk unit, wherein said disk control unit, in response to a write request from said second computer, stores write data associated therewith to said third disk unit;
forming a simplex state and sending a first message from said first computer to said second computer indicating forming of said simplex state, wherein said disk control unit, in response to a write request from said first computer, stores write data associated therewith only to said first disk unit, wherein said disk control unit, in response to a write request from said second computer, stores write data associated therewith to said third disk unit;
subsequent to receiving said first message performing at said second computer a re-mapping operation between said second disk unit and said third disk unit; and
forming a second duplex state between said first disk unit and said third disk unit, wherein said disk control unit, in response to a write request from said first computer, stores write data associated therewith to both said first disk unit and to said third disk unit, wherein said disk control unit, in response to a write request from said second computer, stores write data associated therewith to said second disk unit.
2. A method of sharing data according to claim 1, further comprising forming a simplex state subsequent to forming said second duplex state, wherein said disk control unit, in response to a write request from said first computer, stores write data associated therewith only to said first disk unit, wherein said disk control unit, in response to a write request from said second computer, stores write data associated therewith to said third disk unit.
3. A method of sharing data in a computer system, said computer system comprising a first computer, a second computer, and a storage system comprising a disk control unit, a first disk unit, a second disk unit, a third disk unit, and a fourth disk unit, the method comprising:
forming a duplex state between said first disk unit and said second disk unit, wherein said disk control unit, in response to a write request from said first computer, stores write data associated therewith to both said first disk unit and to said second disk unit, wherein said disk control unit, in response to a write request from said second computer, stores write data associated therewith to said fourth disk unit;
forming a simplex state and sending a message from said first computer to said second computer indicating forming of said simplex state, wherein said disk control unit, in response to a write request from said first computer, stores write data associated therewith only to said first disk unit;
subsequent to receiving said first message, copying data stored in said second disk unit to said third disk unit and then performing at said second computer a re-mapping operation between said third disk unit and said fourth disk unit, wherein subsequent to said re-mapping said disk control unit accesses said third disk unit in response to IO requests from said second computer; and
re-forming said duplex state between said first disk unit and said second disk unit, wherein said disk control unit, in response to a subsequent write request from said first computer, stores write data associated therewith to both said first disk unit and to said second disk unit.
4. A method of sharing data according to claim 3, wherein said step of copying data includes steps of:
converting a first data format of data stored in said second disk unit to a second data format; and
storing said data according to said second data format to said fourth disk unit.
5. A method of sharing data according to claim 4, wherein said first data format is a count key data format and said second data format is a fixed-length block format.
6. A method of sharing data according to claim 3, wherein said computer system further comprises a processor coupled to said storage system, and said step of copying data is performed by said processor.
7. A method of sharing data in a computer system, said computer system comprising a first computer, a second computer, a first storage system coupled to said first computer and comprising a first disk unit and a first disk control unit, and a second storage system coupled to said second computer and comprising a second disk unit, a third disk unit, a fourth disk unit, and a second disk controller unit, wherein said first disk control unit and said second disk control unit are coupled via a network, the method comprising steps of:
forming a duplex state between said first disk unit and said second disk unit, wherein said first disk control unit, in response to a write request from said first computer, stores write data associated therewith to both said first disk unit and to said second disk unit, wherein said second disk control unit, in response to a write request from said second computer, stores write data associated therewith to said fourth disk unit;
terminating execution of applications in said first computer;
subsequent to said terminating, forming a simplex state, wherein said first disk control unit, in response to a write request from said first computer, stores write data associated therewith only to said first disk unit;
subsequent to said step of forming a simplex state, sending a message from said first computer to said second computer indicating said simplex state, wherein said second computer performs copying data stored in said second disk unit to said third disk unit and subsequent to said copying, performs a re-mapping between said third disk unit and said fourth disk unit so that said second disk control unit now accesses said third disk unit, in response to IO requests from said second computer; and
re-forming said duplex state between said first disk unit and said second disk unit, wherein said disk control unit, in response to a subsequent write request from said first computer, stores write data associated therewith to both said first disk unit and to said second disk unit.
8. A method of sharing data according to claim 7, wherein said step of copying data includes steps of:
converting a data format of data stored in said second disk unit to another data format; and
storing data according to said other data format to said third disk unit.
9. The storage system of claim 7, wherein data stored on said second disk unit is of a first data format and data stored on said third disk unit is of a second data format.
10. A storage system comprising:
a disk control unit; and
a plurality of disk units,
wherein said disk control unit is operable to form a duplex state between a first disk unit and a second disk unit, wherein data associated with a write request from a first computer is stored to both said first disk unit and to said second disk unit, wherein a third disk unit is accessed to service an IO request from a second computer,
wherein said disk control unit is further operable to form a simplex state between said first disk unit and said second disk unit, wherein data associated with a write request from said first computer is stored only to said first disk unit,
wherein during said simplex state, an application executing on said first computer sends a message to said second computer indicating forming of said simplex state, wherein data stored in said second disk unit is copied to a third disk unit,
wherein subsequent to data being copied from said second disk unit to said third disk unit, a re-mapping of said second disk unit and said third disk unit is performed so that said second disk unit is accessed to service subsequent IO requests from said second computer,
wherein another duplex state is formed between said first disk unit and said third disk unit so that data associated with subsequent write requests from said first computer are stored to both said first disk unit and to said third disk unit.
11. A storage system comprising:
a disk control unit; and
a plurality of disk units,
wherein said disk control unit is operable to form a duplex state between a first disk unit and a second disk unit, wherein data associated with a write request from a first computer is stored to both said first disk unit and to said second disk unit, wherein data associated with a write request from a second computer is stored to a fourth disk unit,
wherein said disk control unit is further operable to form a simplex state, wherein an application executing on said first computer sends a message to said second computer indicating forming of said simplex state, wherein data associated with a write request from said first computer is stored only to said first disk unit,
wherein during said simplex state, data stored in said second disk unit is copied to said third disk unit and subsequent to said copying, data associated with a write request from said second computer is stored to said third disk unit as a result of a re-mapping performed between said third disk unit and said fourth disk unit,
wherein said duplex state is re-formed between said first disk unit and said second disk unit.
12. The storage system of claim 11, wherein data stored on said second disk unit is of a first data format and data stored on said third disk unit is of a second data format.
13. The storage system of claim 12, wherein said first data format is a count key data format and said second data format is a fixed-length block format.
14. A storage system comprising:
a disk control unit;
a plurality of disk units; and
a network connecting at least some of said disk units,
said disk control unit being operable to copy data stored in a first disk unit to a second disk unit via said network,
said disk control unit being operable to form a duplex state between said first disk unit and said second disk unit, wherein data associated with a write request from a first computer is stored to both said first disk unit and to said second disk unit, wherein data associated with a write request from a second computer is stored to a third disk unit,
said disk control unit further being operable to form a simplex state, wherein an application executing on said first computer sends a message to said second computer indicating forming of said simplex state, wherein data associated with a write request from said first computer is stored only to said first disk unit,
wherein during said simplex state, data stored in said second disk unit is copied to a third disk unit and, subsequent to said copying, said second computer accesses said second disk unit as a result of a re-mapping performed between said second disk unit and said third disk unit,
wherein another duplex state is formed between said first disk unit and said third disk unit so that data in subsequent write requests from said first computer are stored in both said first disk unit and said third disk unit.

1. A terminal, comprising:
a transceiver configured to receive, from a first terminal, a session invite request to establish a new session with the terminal;
a controller configured to:
determine whether a service type of the session invite request is similar to a service type of an established session between the terminal and a second terminal; and
control the transceiver to transmit, to the first terminal, a first session rejection response based on the determination,

wherein the session invite request is based on message session relay protocol (MSRP) or real-time transport protocol (RTP).
2. The terminal of claim 1, wherein the controller is configured to determine whether to reject the session invite request based on a declination received at the terminal.
3. The terminal of claim 2, wherein the transceiver is configured to transmit, to the first terminal, a second session rejection response based on the determination whether to reject the session invite request based on the declination.
4. The terminal of claim 1, wherein establishment of the new session is based on a determination that the service types are different and an acceptance received at the terminal.
5. The terminal claim 3, wherein:
the first session rejection response is a session initiation protocol (SIP) 486 \u201cBusy Here\u201d response; and
the second session rejection response is a SIP 480 \u201cTemporarily Unavailable\u201d response.
6. The terminal of claim 1, wherein:
the service type is at least one of an audio, a message, and a video service; and
the service type is defined in a session description protocol (SDP) body.
7. A terminal, comprising:
a controller configured to generate a session invite request to establish a new session with a first terminal; and
a transceiver configured to:
transmit the session invite request to the first terminal; and
receive a first session rejection response from the first terminal, wherein:
reception of the first session rejection response is in response to a service type of the session invite request being similar to a service type of an established session between the first terminal and a second terminal; and
the session invite request is based on message session relay protocol (MSRP) or real-time transport protocol (RTP).
8. The terminal of claim 7, wherein the transceiver is configured to receive a second session rejection response from the first terminal in response to a declination received at the first terminal.
9. The terminal of claim 7, wherein establishment of the new session is based on a determination that the service types are different and an acceptance received at the first terminal.
10. The terminal claim 8, wherein:
the first session rejection response is a session initiation protocol (SIP) 486 \u201cBusy Here\u201d response; and
the second session rejection response is a SIP 480 \u201cTemporarily Unavailable\u201d response.
11. The terminal of claim 7, wherein:
the service type is at least one of an audio, a message, and a video service; and
the service type is defined in a session description protocol (SDP) body.

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 machine for mixing and conveying temporarily flowable solid materials to a delivery location comprising:
a base frame;
an elongated conveyor frame connected to said base frame;
a mixing conveyor mounted within said conveyor frame;
a material delivery hopper connected to said base frame;
an outlet located in a lower end of said delivery hopper for selectively admitting materials from the hopper into a proximal end of said conveyor; and
fluid delivery system connected to said base frame for admitting a fluid into said conveyor wherein an admixture of materials are deposited into a proximal end of said mixing conveyor by said hopper and fluid is added to said conveyor and the admixture of materials and fluid are combined within the conveyor to deliver a mixture;
2. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 1 wherein said conveyor comprises:
a set of side walls and a base residing on a conveyor frame so as to define a trough-like containment for the materials and fluid;
a delivery port resident at the distal end of said mixing conveyor; and
a containment end wall located at the proximal end of said mixing conveyor.
a set of side walls and a base residing on a conveyor frame so as to define a trough-like containment for the materials and fluid;
a delivery port resident at the distal end of said mixing conveyor; and
a containment end wall located at the proximal end of said mixing conveyor.
3. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 1 and further comprising:
means connected to said machine for selectively adding fluid to said admixture for mixing with particulate material within said mixing conveyor
4. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 2 and further comprising:
lifting system for said hopper, said lifting system including at least two legs pivotally connected between said base frame and said hopper; and
means for pivoting said hopper from a lowered position with respect to said base to a parked end of said mixing conveyor.
5. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 4 and further comprising:
at least a pair of movement wheels depending from of the base frame to facilitate movement of said machine to a desired deposit site.
6. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 5 and further wherein said means for mixing comprises:
a variable speed direct drive connection between said base frame and said mixing conveyor.
7. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 6 and further comprising:
said means of mixing materials includes a hydraulic motor.
8. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 6 and further comprising:
said means for mixing materials includes an electric motor.
9. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 5 and further comprising:
a drive connection between said means for mixing and said mixing conveyor comprising
a transmission system.
10. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 5 and further comprising:
a stabilizer arm extending from the base frame and having a projection in the direction of pivotal travel of the hopper as defined by the support arms for stabilizing the hopper in a lowered condition.
11. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 2 wherein said conveyor further comprises:
a drive shaft longitudinally positioned within said trough and journaled for rotation within said trough; and
auger blades mounted upon said drive shaft such that rotation of said drive shaft rotates said auger blades and concomitantly servers to advance particulates material within said trough from a proximal end beneath said hopper to a distal end and mix the particulate material with fluid within the trough as the auger advances the material and fluid within the trough.
12. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 11 wherein:
said auger blade is divided into a plurality of independent sections serially connected along said drive shaft and the pitch of said auger blades are different in at least two sections of the auger.
13. A machine for mixing and conveying temporarily flowable solid materials to a delivery location as defined in claim 12 wherein:
the pitch increases in each section of the serially connected independent auger sections so that lateral transport of material decreases and mixing increases as material and fluid advance to the distal end of the auger.