Author: claimsbot

1. A computer-implemented method for providing a gateway between one or more redirection client applications and one or more redirection server applications, the method comprising:
at the gateway:
establishing a connection from the redirection gateway client application to connect to a first redirection server application, the first redirection server application supporting a first redirection protocol;
in response to the request, establishing a connection to the first redirection server application;
establishing a connection to a first redirection client application, the first redirection client application supporting the first redirection protocol;
bridging the connection to the first redirection server application with the connection to the first redirection client application;
receiving a request from the redirection gateway client application to connect to a second redirection server application, the second redirection server application supporting a second redirection protocol incompatible with the first redirection protocol;
in response to receiving the request to connect to the second redirection server application, establishing a connection to the second redirection server application;
establishing a connection to a second redirection client application, the second redirection client application supporting the second redirection protocol; and
bridging the connection to the second redirection server application with the connection to the second redirection client application, wherein the first redirection protocol comprises the remote desktop protocol (RDP) and the second redirection protocol comprises the virtual network computing (VNC) protocol.
2. The method of claim 1, wherein the redirection gateway client application is operative to cause the first redirection client application and the second redirection client application to be executed on a client computer.
3. The method of claim 2, further comprising storing data identifying a network address for the first redirection server application, data identifying a network address for the second redirection server application, data identifying a network address for the redirection gateway client application, a network address for the first redirection client application, and a network address for the second redirection client application.
4. The method of claim 3, further comprising discovering the redirection server applications and providing data identifying the redirection server applications to the redirection gateway client application.
5. A non-transitory computer-readable storage media having computer-executable instruction stored thereon which, when executed by a computer, cause the computer to perform the method of claim 1.
6. A system for providing a gateway between one or more redirection server applications and one or more redirection client applications, the system comprising:
a redirection gateway operative to;
receive a first connection request from a redirection gateway client application;
establish a connection to a first redirection server application in response to the first connection request, the first redirection server application supporting a first redirection protocol;
establish a connection to a first redirection client application supporting the first redirection protocol;
bridge the connection to the first redirection server application with the connection to the first redirection client application;
receive a second connection request from the gateway client application;
establish a connection request to a second redirection server application in response to the second connection request, wherein the second redirection server application supporting a second redirection protocol incompatible with the first redirection protocol;
establish a connection to a second redirection client application supporting the second redirection protocol; and
bridge the connection to the second redirection server application with the connection to the second redirection client application; and
a redirection gateway client application operative to;
establish a connection with the redirection gateway;
transmit the first connection request and the second connection request to the redirection gateway; and
cause the execution of the first redirection client application and the second redirection client application, wherein the first redirection protocol comprises the remote desktop protocol (RDP) and the second redirection protocol comprises the virtual network computing (VNC) protocol.
7. The system of claim 6, wherein the redirection gateway is further operative to maintain data identifying a network address of the first redirection server application, the second redirection server application, the network address of the redirection gateway client application, the first redirection client application, and the second redirection client application.
8. The system of claim 6, wherein the redirection gateway is further operative to discover the redirection server applications and a redirection protocol utilized by each of the redirection server applications and to provide data identifying the redirection server applications and the redirection protocol utilized by each of the redirection server applications to the redirection gateway client application.
9. An apparatus for providing a gateway between one or more redirection server applications and one or more redirection client applications, the system apparatus comprising:
a network interface;
a memory storing a redirection gateway server application, the redirection gateway server application operative to:
establish a connection with a redirection gateway client application via the network interface;
receive a first request from the redirection gateway client application to connect to a first redirection server application, wherein the first redirection server application supporting a first redirection protocol;
establish a connection to the first redirection server application in response to the first request;
establish a connection to a first redirection client application compatible with the first redirection protocol;
bridge the connection to the first redirection server application with the connection to the first redirection client application;
receive a second request from the redirection gateway client application to connect to a second redirection server application, wherein the second redirection server application supporting a second redirection protocol incompatible with the first protocol;
establish a connection to the second redirection server application in response to second request;
establish a connection to a second redirection client application compatible with the second redirection protocol and;
bridge the connection to the second redirection server application with the connection to the second redirection client application, wherein the first redirection protocol comprises the remote desktop protocol (RDP) and the second redirection protocol comprises the virtual network computing (VNC) protocol; and
a central processing unit for executing the redirection gateway server application from the memory.
10. The apparatus of claim 9, wherein the redirection gateway client application is operative to cause the first redirection client application and the second redirection client application to be executed on a client computer.
11. The apparatus of claim 10, wherein the redirection gateway server application is further operative to store data identifying a network address for the first redirection server application, the second redirection server application, data identifying a network address for the redirection gateway client application, and a network address for the first redirection client application and a network address for the second redirection client application in the memory.
12. The apparatus of claim 11, wherein the redirection gateway server application is further operative to discover the redirection server applications and to provide data identifying the redirection server applications to the redirection gateway client application.

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 pressing iron comprising:
a heating soleplate;
a body overlying said soleplate;
a handle forming a protuberance on said body, said handle having an upper surface forming a bearing surface for the palm of a user’s hand, said surface having, at least locally, a width greater than or equal to 4 cm and lateral walls extending from said upper surface of said handle to said body for receiving the fingertips of the user’s hand;
a reservoir within said body; and
a filling orifice within said handle, said filling orifice communicating with said reservoir and opening at a surface of said handle,
wherein:
said reservoir has a filling neck communicating with said filling orifice and extending within said body,
said iron further comprises an annular control dial disposed around said filling neck, and
said control dial has an outer periphery extending laterally beyond at least one of the lateral walls of said handle.
2. The pressing iron according to claim 1, wherein said filling neck is constructed to guide rotational movements of said control dial.
3. The pressing iron according to claim 2, wherein said control dial has a notched part cooperating with a pinion to control a thermostat for regulating the temperature of said soleplate.
4. The pressing iron according to claim 3, wherein said upper surface of the handle has a transparent window facing a part of said control dial.
5. The pressing iron according claim 4, wherein said handle has a front end, and said iron further comprises a steam control button in said upper surface of said handle in proximity to said front end of said handle.
6. The pressing iron according claim 3, wherein said handle has a front end, and said iron further comprises a steam control button in said upper surface of said handle in proximity to said front end of said handle.
7. The pressing iron according to claim 2, wherein said upper surface of the handle has a transparent window facing a part of said control dial.
8. The pressing iron according claim 7, wherein said handle has a front end, and said iron further comprises a steam control button in said upper surface of said handle in proximity to said front end of said handle.
9. The pressing iron according claim 2, wherein said handle has a front end, and said iron further comprises a steam control button in said upper surface of said handle in proximity to said front end of said handle.
10. The pressing iron according to claim 1, wherein said control dial has a notched part cooperating with a pinion to control a thermostat for regulating the temperature of said soleplate.
11. The pressing iron according to claim 10, wherein said upper surface of the handle has a transparent window facing a part of said control dial.
12. The pressing iron according claim 11, wherein said handle has a front end, and said iron further comprises a steam control button in said upper surface of said handle in proximity to said front end of said handle.
13. The pressing iron according to claim 1, wherein said upper surface of the handle has a transparent window facing a part of said control dial.
14. The pressing iron according claim 13, wherein said handle has a front end, and said iron further comprises a steam control button in said upper surface of said handle in proximity to said front end of said handle.
15. The pressing iron according claim 1, wherein said handle has a front end, and said iron further comprises a steam control button in said upper surface of said handle in proximity to said front end of said handle.
16. The pressing iron according claim 1, wherein said filling orifice opens at said upper surface of said handle.

1. A method for assembling a gas turbine engine, said method comprising:
coupling a first fuel system interface (FSI-1) to a second fuel system interface (FSI-2);
coupling one of the FSI-1 and the FSI-2 to the gas turbine engine;
coupling a first control system to the FSI-1 and to the FSI-2, wherein the first control system includes a first driver A and a second driver A;
coupling a second control system to the FSI-1 and to the FSI-2, wherein the second control system includes a first driver B and a second driver B;
configuring the first control system to apply a first over-speed logic algorithm to determine operation of at least one of the first driver A, the second driver A, the first driver B, and the second driver B, and to apply a second over-speed logic algorithm to determine operation of at least one of the first driver A, the second driver A, the first driver B, and the second driver B; and
configuring the second control system to apply the first over-speed logic algorithm to determine operation of at least one of the first driver A, the second driver A, the first driver B, and the second driver B, and to apply the second over-speed logic algorithm to determine operation of at least one of the first driver A, the second driver A, the first driver B, and the second driver B.
2. A method in accordance with claim 1, wherein configuring the first control system comprises configuring the first control system to apply the first over-speed logic algorithm to determine operation of the first driver A and to apply the second over-speed logic algorithm to determine operation of the second driver A.
3. A method in accordance with claim 1, wherein configuring the second control system comprises configuring the second control system to apply the first over-speed logic algorithm to determine operation of the first driver B and to apply the second over-speed logic algorithm to determine operation of the second driver B.
4. A method in accordance with claim 1, wherein coupling one of the FSI-1 and the FSI-2 to the gas turbine engine comprises coupling one of the FSI-1 and the FSI-2 to a fuel throttlingshutoff valve configured to discontinue fuel flow to a combustor of the gas turbine engine upon receipt of an over-speed signal from the FSI-1 and the FSI-2.
5. A method in accordance with claim 1, further comprising configuring a first set of logic sensors to collect operating information from the engine, and a second set of logic sensors that are independent from the first set of logic sensors, to collect operating information from the engine.
6. A method in accordance with claim 5, further comprising configuring the first control system to receive engine operating information from at least one of the first set of logic sensors and the second set of logic sensors, and configuring the second control system to receive engine operating information from at least one of the first set of logic sensors and the second set of logic sensors.
7. A method in accordance with claim 1, further comprising configuring the first over-speed logic algorithm to apply at least one of a first over-speed threshold and a first set of over-speed calculations, to determine operation of at least one of the first driver A, the second driver A, the first driver B, and the second driver B.
8. A method in accordance with claim 1, further comprising configuring the second over-speed logic algorithm to apply at least one of a second over-speed threshold and a second set of over-speed calculations, to determine operation of at least one of the first driver A, the second driver A, the first driver B, and the second driver B.
9. An over-speed protection system for a gas turbine engine including a rotor, said over-speed protection system comprising:
a fuel throttlingshutoff valve coupled to a fuel supply coupled to said gas turbine engine;
a first fuel system interface (FSI-1) coupled to said fuel throttlingshutoff valve;
a second fuel system interface (FSI-2) coupled to said FSI-1;
a first control system coupled to said FSI-1 and to said FSI-2, said first control system comprising a first driver A and a second driver A, said first control system programmed with a first logic algorithm and a second logic algorithm; and
a second control system coupled to said FSI-1 and said FSI-2, said second control system comprising a first driver B and a second driver B, said second control system programmed with the first logic algorithm and the second logic algorithm.
10. A system in accordance with claim 9, wherein said fuel throttlingshutoff valve is configured to discontinue fuel flow to said gas turbine engine upon receipt of an over-speed signal from said FSI-1 and said FSI-2.
11. A system in accordance with claim 9, wherein said first control system is configured to determine operation of said first driver A using the first logic algorithm, and to determine operation of said second driver A using the second logic algorithm.
12. A system in accordance with claim 9, wherein said second control system is configured to determine operation of said first driver B using the first logic algorithm, and to determine operation of said second driver B using the second logic algorithm.
13. A system in accordance with claim 9, wherein said FSI-1 comprises a servovalve coupled to a shutoff shuttle valve.
14. A system in accordance with claim 13, wherein said servovalve comprises an electro-hydraulic servovalve (EHSV).
15. A system in accordance with claim 9, wherein said FSI-2 comprises a servovalve coupled to a shutoff shuttle valve.
16. A system in accordance with claim 15, wherein said servovalve comprises an electro-hydraulic servovalve (EHSV).
17. A gas turbine engine comprising:
a rotor;
a fuel delivery system configured to supply fuel to said engine for operating said rotor; and
an over-speed protection system coupled to said fuel delivery system, said over-speed protection system comprising:
a fuel throttlingshutoff valve coupled to said fuel delivery system;
a first fuel system interface (FSI-1) coupled to said fuel throttlingshutoff valve;
a second fuel system interface (FSI-2) coupled to said FSI-1;
a first control system coupled to said FSI-1 and to said FSI-2, said first control system comprising a first driver A and a second driver A, said first control system programmed with a first logic algorithm and a second logic algorithm; and
a second control system coupled to said FSI-1 and said FSI-2, said second control system comprising a first driver B and a second driver B, said second control system programmed with the first logic algorithm and the second logic algorithm.
18. A system in accordance with claim 17, wherein said fuel throttlingshutoff valve is configured to discontinue fuel flow to said gas turbine engine upon receipt of an over-speed signal from said FSI-1 and said FSI-2.
19. A system in accordance with claim 17, said first control system configured to determine operation of said first driver A using the first logic algorithm, and to determine operation of said second driver A using the second logic algorithm.
20. A system in accordance with claim 17, said second control system configured to determine operation of said first driver B using the first logic algorithm, and to determine operation of said second driver B using the second logic algorithm.

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 composite substrate comprising a seed crystal substrate and a layer of a crystal of a nitride of a group 13 element grown on said seed crystal substrate, said seed crystal substrate comprising a base body and a plurality of rows of stripe-shaped seed crystal layers formed on said base body:
wherein an upper face of said seed crystal layer is (11-22) plane;
wherein a groove is formed between said seed crystal layers adjacent to each other, and;
wherein a longitudinal direction of said groove is a direction in which a c-axis of a crystal forming said seed crystal layer is projected on said upper face.
2. The composite substrate of claim 1, wherein said seed crystal layer has a side face facing said groove and of m-plane.
3. The composite substrate of claim 1, wherein a plurality of said seed crystal layers are separated from each other.
4. The composite substrate of claim 1, wherein said seed crystal layer comprises gallium nitride single crystal.
5. The composite substrate of claim 1, wherein said layer of said crystal of said nitride of said group 13 element comprises gallium nitride crystal.
6. The composite substrate of claim 1, wherein said layer of said crystal of said nitride of said group 13 element is polished.
7. A functional device comprising said composite substrate of claim 1, and a functional layer comprising a nitride of a group 13 element and formed on said layer of said crystal of said nitride of said group 13 element by vapor phase method.
8. The functional device of claim 7, wherein said functional layer has a function of emitting light.
9. A seed crystal substrate comprising a base body and a plurality of rows of stripe-shaped seed crystal layers formed on said base body:
wherein an upper face of said seed crystal layer is (11-22) plane;
wherein a groove is formed between said seed crystal layers adjacent to each other, and;
wherein a longitudinal direction of said groove is a direction in which a c-axis of a crystal forming said seed crystal layer is projected on said upper face.
10. The seed crystal substrate of claim 9, wherein said seed crystal layer has a side face facing said groove and of m-plane.
11. The seed crystal substrate of claim 9, wherein a plurality of said seed crystal layers are separated from each other.
12. The seed crystal substrate of claim 9, wherein said seed crystal layer comprises gallium nitride single crystal.