Author: claimsbot

1. A method for limiting the rotational speed in an internal combustion engine with a device for detecting preselectable operating parameters, with at least one device for determining control variables for ignition, injection and throttle valve position based on the detected operating parameters, whereby on reaching a preselectable rotational speed value (nmax) the rotational speed is limited to the preselectable rotational speed value by varying at least one of the control variables, wherein the injection is faded in and out with or without simultaneous intervention in the ignition with simultaneous support by the electric throttle valve which causes a hard limitation on rotational speed which is combined with a soft limitation on rotational speed accomplished by varying the throttle valve, whereby the combination of hard and soft rotational speed limitation is accomplished according to a desired driving performance.
2. The method as claimed in claim 1, wherein the hard rotational speed limitation at which injection is faded out is adjustable in any duration of fade-out and in any interval of fade-out through supportive throttle valve intervention.
3. The method as claimed in claim 1, wherein maximum rotational speeds that are variable over time are adjustable depending on the requirement of the driving performance.
4. The method as claimed in claim 2, wherein maximum rotational speeds that are variable over time are adjustable depending on the requirement of the driving performance.
5. A method for limiting the rotational speed in an internal combustion engine, comprising the acts of:
detecting preselectable operating parameters;
determining control variables for ignition, injection and throttle valve position based on the detected operating parameters,
limiting the rotational speed to the preselectable rotational speed value by varying at least one of the control variables when a preselectable rotational speed value is reached; and
fading in and out the injection with simultaneous support by the electric throttle valve, which causes a hard limitation on rotational speed and which is combined with a soft limitation on rotational speed accomplished by varying the throttle valve, wherein the combination of the hard and soft limitation is performed according to a desired driving performance.
6. The method of claim 5, wherein the fading in and out is performed with simultaneous intervention in the ignition.
7. The method of claim 5, wherein the fading in and out is performed without simultaneous intervention in the ignition.
8. The method as claimed in claim 5, wherein the hard rotational speed limitation at which injection is faded out is adjustable in any duration of fade-out and in any interval of fade-out through supportive throttle valve intervention.
9. The method as claimed in claim 5, wherein maximum rotational speeds that are variable over time are adjustable depending on the requirement of the driving performance.

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. Modified cereal flour containing cereal flour and sodium metaphosphate NanPnO3n, wherein the modified cereal flour can be obtained by extrusion of the flour and sodium metaphosphate.
2. Modified cereal flour according to claim 1, characterised in that n in the total formula is 3, 4 or 5.
3. Modified cereal flour according to claim 1, characterised in that the cereal flour is rye flour.
4. Modified cereal flour according to claim 1, characterised in that the water content of the modified cereal flour does not exceed 13% by weight relative to the modified cereal flour.
5. Modified cereal flour according to claim 1, characterised in that the modified cereal flour contains 1 to 2% by weight of sodium metaphosphate and not more than 13% by weight of water, wherein the modified cereal flour can be obtained by extrusion of the cereal flour and sodium metaphosphate with the addition of water.
6. Process for the production of a modified cereal flour, containing cereal flour and sodium metaphosphate and further characterised in that the cereal flour is subjected to extrusion together with sodium metaphosphate and water.
7. Process according to claim 6, characterised in that the water content added for the extrusion lies in a range of 10 to 50% by weight relative to the cereal flour.
8. Process according to claim 6, characterised in that rye flour is used as cereal flour.
9. Modified cereal flour according to claim 1 used for paper manufacture
10. Modified cereal flour according to claim 9, characterised in that the cereal flour is rye flour.
11. Modified cereal flour according to claim 1 characterized in that n in the total formula is 3.
12. Modified cereal flour according to claim 1 characterized in that n in the total formula is 3, 4 or 5 and that the cereal flour is rye flour.
13. Modified cereal flour according to claim 1 characterized in that the water content of the modified cereal flour is at a maximum of 13% by weight relative to the modified cereal flour.
14. Modified cereal flour according to claim 1 characterized in that the water content of the modified cereal flour is at a maximum of 10% by weight relative to the modified cereal flour.
15. Modified cereal flour according to claim 1 characterized in that the modified cereal flour contains 0.5 to 5% by weight of sodium metaphosphate.
16. Modified cereal flour according to claim 15 characterized in that the modified cereal flour contains 0.5 to 3% by weight of sodium metaphosphate.
17. Modified cereal flour according to claim 16 characterized in that the modified cereal flour contains 0.8 to 2.5% by weight of sodium metaphosphate.
18. Process according to claim 6 characterized in that the extrusion temperature is greater than 65\xb0 C.
19. Process according to claim 6 characterized in that the water content of the modified cereal flour does not exceed 13% by weight relative to the modified cereal flour.
20. Process according to claim 6 characterized in that the water content added for the extrusion lies in a range of 20 to 35% by weight relative to the cereal flour.

1. A computer-implemented method of operating a mobile communication terminal to regulate user alerts that are generated therefrom, the computer-implemented method comprising:
responding to receipt of a defined message through a RF transceiver circuit while the terminal has remained stationary for at least a threshold time by setting an alert logic indicator through operations performed by the computer circuit;
responding to sensed movement of the terminal while the alert logic indicator is set by generating a user alert from the terminal to a user through operations performed by the computer circuit; and
responding to receipt at the terminal of a call paging message for an incoming call from a cellular system while the terminal has remained stationary for less than the threshold time by transferring the incoming call to is voice mailbox, which is associated with the terminal, after a first duration of the call paging message remaining unanswered by a user,
wherein responding to receipt of a defined message through a RF transceiver circuit while the terminal has remained stationary for at least a threshold time by setting an alert logic indicator comprises responding to receipt at the terminal of the call paging message from the cellular system while the terminal has remained stationary for at least the threshold time by transferring the incoming call to the voice mailbox after a second duration, which is different than the first duration, of the call paging message remaining unanswered by the user.
2. The method of claim 1, wherein
responding to receipt of a defined message through a RF transceiver circuit while the terminal has remained stationary for at least a threshold time by setting an alert logic indicator further comprises generating a user alert from the terminal to the user through operations performed by the computer circuit; and
responding to sensed movement of the terminal while the alert logic indicator is set by generating a user alert from the terminal to a user comprises generating another user alert from the terminal to the user and resetting the alert logic indicator.
3. The method of claim 1, wherein;
responding to receipt of a defined message through a RF transceiver circuit after the terminal has remained stationary for at least a threshold time by setting an alert logic indicator further comprises preventing generating of a user alert from the terminal to the user until subsequent movement of the terminal is sensed.
4. The computer-implemented method of claim 1, wherein responding to sensed movement of the terminal while the alert logic indicator is set by generating a user alert from the terminal to a user comprises:
triggering a vibration device to vibrate the terminal to alert the user in response to sensing, movement of the terminal while the alert logic indicator is set.
5. The computer-implemented method of claim 1, wherein responding to sensed movement of the terminal while the alert logic indicator is set by generating a user alert from the terminal to a riser comprises:
triggering a speaker device to generate a defined audible signal to the user in response to sensing movement of the terminal while the alert logic indicator is set.
6. The computer implemented method of claim 1, wherein:
responding to receipt of a defined message through a RF transceiver circuit while the terminal has remained stationary for at least a threshold time by setting an alert logic indicator comprises responding to receipt at the terminal of a textmultimedia message from another communication terminal while the terminal has remained stationary for at least the threshold time by triggering a vibration device to vibrate the terminal andor triggering a speaker devise to generate a defined audible signal as an indication to the user that the message was received and by setting the alert logic indicator; and
responding to sensed movement of the terminal while the alert logic indicator is set by generating a user alert from the terminal to a user comprises triggering the vibration device to vibrate the terminal andor triggering the speaker devise to generate a defined audible signal as a repeated alert to the user that the message was received and resetting the alert logic indicator.
7. The computer-implemented method of claim 1, wherein:
responding to receipt of a defined message through a RF transceiver circuit while the terminal has remained stationary for at least a threshold time by setting an alert logic indicator comprises responding to receipt at the terminal of a cell paging message from a cellular system while the terminal has remained stationary for at least the threshold time by triggering a vibration devise to vibrate the terminal andor triggering a speaker device to generate a defined audible signal as an indication to the user that the call paging message was received and by setting the alert logic indicator; and
responding to sensed movement of the terminal while the alert logic indicator is set by generating a user alert from the terminal to a user comprises triggering the vibration device to vibrate the terminal andor triggering the speaker device to generate a defined audible signal as a repeated alert to the user that the call paging message was received and resetting the alert logic indicator.
8. The computer-implemented method of claim 1, wherein the second duration is greater than the first duration.
9. The computer-implemented method of claim 1, wherein responding to receipt or a defined message through a RF transceiver circuit while the terminal has remained stationary for at least a threshold time by setting an alert logic indicator comprises:
resetting a timer value of a counter circuit responsive to sensed movement of the terminal; and
determining that the terminal has remained stationary for at least the threshold time in response to the timer value exceeding a defined threshold value.
10. A mobile communication terminal comprising:
a movement sensing circuit that is configured to generate a movement signal indicating movement of the mobile communication terminal;
a RF transceiver circuit that is configured to communicate through a wireless air interface; and
a computer circuit that is configured to respond to receipt of a defined message through the RF transceiver circuit while the movement signal indicates that the terminal has remained stationary for at least a threshold time by setting an alert logic indicator, and configured to respond to sensed movement of the terminal while the alert logic indicator is set by generating a user alert from the terminal to a user,
wherein the computer circuit is further configured to respond to receipt of a call paging message for an incoming call from a cellular system through the RF transceiver circuit while the terminal has remained stationary for less than the threshold time by transferring the incoming call to a voice mailbox, which is associated with the terminal, after expiration of a first duration of the call paging message remaining unanswered by a user, and configured to respond to receipt of the call paging message from the cellular system while the terminal has remained stationary for at least the threshold time by transferring the incoming call to the voice mailbox after expiration of a second duration, which is different than the first duration, of the call paging message remaining unanswered by a user.
11. The mobile communication terminal of claim 10, wherein:
the computer circuit is further configured to respond to receipt of the defined messaged through the RF transceiver circuit while the terminal has remained stationary for at least the threshold time by generating a user alert from the terminal to the user, and to respond to sensed movement of the terminal while the alert logic indicator is set by repeating the generation of the user alert to the user.
12. The mobile communication terminal of claim 10, wherein:
the computer circuit is further configured to respond to receipt of the defined message through the RF transceiver circuit while the terminal has remained stationary for at least the threshold time by preventing generating of a alert from the terminal to the user until the movement signal subsequently indicates movement of the terminal.
13. The mobile communication terminal of claim 10, wherein:
the computer circuit is further configured to respond to receipt of a textmultimedia message through the RF transceiver circuit while the terminal has remained stationary for at least the threshold time by triggering a vibration device to vibrate the terminal andor triggering a speaker device to generate a defined audible signal as an indication to the user that the message was received and by setting the alert logic indicator, and configured to respond to sensed movement of the terminal while the alert logic indicator is set by triggering the vibration device to vibrate the terminal andor triggering the speaker device to generate a defined audible signal as a repeated alert to the user that the message was received and by resetting the alert logic indicator.
14. The mobile communication terminal of claim 10, wherein:
the computer circuit is further configured to respond to receipt of a call paging message from a cellular system through the RF transceiver circuit while the terminal has remained stationary for at least the threshold time by triggering a vibration device to vibrate the terminal andor triggering a speaker device to generate a defined audible signal as an indication to the user that the call paging message was received and by setting the alert logic indicator, and configured to respond to sensed movement of the terminal while the alert logic indicator is set by triggering the vibration device to vibrate the terminal andor triggering the speaker device to generate a defined audible signal as a repeated alert to the user that the call paging message was received and by resetting the alert logic indicator.

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 golf ball, comprising:
a core;
a cover encasing the core; and
a coating encasing the cover, wherein the coating includes a resin and a plurality of surface roughening particles;
wherein the golf ball has a first set of construction specifications;
wherein the plurality of surface roughening particles are present in the coating in a sufficient amount so that an exterior surface of the golf ball has a first micro surface roughness at least 1.2 times larger than a micro surface roughness of an exterior surface of a first comparative ball having the first set of construction specifications but not including the surface roughening particles;
wherein the plurality of surface roughening particles are present in a sufficient amount in the coating such that the golf ball exhibits a carry that is at least 99.5% of the largest carry exhibited by:
(a) the first comparative ball;
(b) a second comparative ball having the first set of construction specifications and a micro surface roughness of about 2.0 times larger than the micro surface roughness of the first comparative ball;
(c) a third comparative ball having the first set of construction specifications and a micro surface roughness of about 3.0 times larger than the micro surface roughness of the first comparative ball; and
(d) a fourth comparative ball having the first set of construction specifications and a micro surface roughness of about 4.0 times larger than the micro surface roughness of the first comparative ball;

wherein micro surface roughness include deviations from an ideal surface of 0.25 mm or less and wherein carry measurements are measured using standard USGA indoor test range testing protocols with balls launched in a seam orientation at an initial launch velocity of 242 fts, an initial launch angle of 11.3\xb0, and an initial launch spin of 44.7 revolutionss.
2. The golf ball of claim 1, wherein the surface roughening particles have an average particle size of 400 nm to 160 microns.
3. The golf ball of claim 1, wherein the surface roughening particles comprise 1 to 30 wt % of a total weight of the coating.
4. The golf ball of claim 1, wherein the surface roughening particles are selected from the group consisting of: fumed silica, amorphous silica, colloidal silica, alumina, colloidal alumina, titanium oxide, cesium oxide, yttrium oxide, colloidal yttria, zirconia, colloidal zirconia, polyethylene terephthalate, polybutylene terephthalate, polyethylene naphthalate, vinyl esters, epoxy materials, phenolics, aminoplasts, polyurethanes and composite particles of silicon carbide or aluminum nitride coated with silica or carbonate.
5. The golf ball of claim 1, wherein the coating has an average thickness of 8 to 50 microns.
6. The golf ball of claim 1, wherein the coating includes the surface roughening particles contained within the resin.
7. The golf ball of claim 1, wherein the coating comprises a layer of resin applied to an outer surface of a golf ball body of the golf ball and the plurality of surface roughening particles embedded in an outer surface of the layer of resin.
8. The golf ball of claim 1, wherein a predetermined area of the exterior surface of the golf ball has the first micro surface roughness, and wherein the predetermined area of the exterior surface is smaller than a surface area of the entire exterior surface.
9. The golf ball of claim 8, wherein the predetermined area comprises an area covering at least 7.5% of the exterior surface.
10. The golf ball of claim 1, wherein the first micro surface roughness constitutes an average micro surface roughness of an area covering at least 7.5% of an entire surface area of the ball, wherein the area covering at least 7.5% of the entire surface areas is dispersed over at least 36 discrete locations on the surface of the ball.
11. The golf ball of claim 1, wherein the first micro surface roughness constitutes an average micro surface roughness of at least 7.5% of an entire surface area of the ball, wherein the 7.5% of the entire surface area includes surface area surrounding at least 36 different dimples dispersed around the surface of the ball.
12. A golf ball, comprising:
a core;
a cover encasing the core; and
a coating encasing the cover, wherein the coating includes a resin and a plurality of surface roughening particles;
wherein the golf ball has a first set of construction specifications;
wherein the plurality of surface roughening particles are present in the coating in a sufficient amount so that an exterior surface of the golf ball has a first micro surface roughness at least 1.2 times larger than a micro surface roughness of an exterior surface of a first comparative ball having the first set of construction specifications but not including the surface roughening particles;
wherein the plurality of surface roughening particles are present in a sufficient amount in the coating such that the golf ball exhibits a total carry and roll that is at least 99.5% of the largest total carry and roll exhibited by:
(a) the first comparative ball;
(b) a second comparative ball having the first set of construction specifications and a micro surface roughness of about 2.0 times larger than the micro surface roughness of the first comparative ball;
(c) a third comparative ball having the first set of construction specifications and a micro surface roughness of about 3.0 times larger than the micro surface roughness of the first comparative ball; and
(d) a fourth comparative ball having the first set of construction specifications and a micro surface roughness of about 4.0 times larger than the micro surface roughness of the first comparative ball;

wherein micro surface roughness include deviations from an ideal surface of 0.25 mm or less and wherein carry and roll are measured using standard USGA indoor test range testing protocols with balls launched in a seam orientation at an initial launch velocity of 242 fts, an initial launch angle of 11.3\xb0, and an initial launch spin of 44.7 revolutionss.
13. The golf ball of claim 12, wherein the surface roughening particles have an average particle size of 400 nm to 160 microns.
14. The golf ball of claim 12, wherein the surface roughening particles comprise 1 to 30 wt % of a total weight of the coating.
15. The golf ball of claim 12, wherein the coating includes the surface roughening particles contained within the resin.
16. The golf ball of claim 12, wherein the first micro surface roughness constitutes an average micro surface roughness of an area covering at least 7.5% of an entire surface area of the ball, wherein the area covering at least 7.5% of the entire surface areas is dispersed over at least 36 discrete locations on the surface of the ball.
17. A golf ball, comprising:
a core;
a cover encasing the core; and
a coating encasing the cover, wherein the coating includes a resin and a plurality of surface roughening particles;
wherein the golf ball has a first set of construction specifications;
wherein the plurality of surface roughening particles are present in the coating in a sufficient amount so that an exterior surface of the golf ball has a first micro surface roughness at least 1.2 times larger than a micro surface roughness of an exterior surface of a first comparative ball having the first set of construction specifications but not including the surface roughening particles;
wherein the plurality of surface roughening particles are present in a sufficient amount in the coating such that the golf ball exhibits an apex that is at least 96% of the highest apex exhibited by:
(a) the first comparative ball;
(b) a second comparative ball having the first set of construction specifications and a micro surface roughness of about 2.0 times larger than the micro surface roughness of the first comparative ball;
(c) a third comparative ball having the first set of construction specifications and a micro surface roughness of about 3.0 times larger than the micro surface roughness of the first comparative ball; and
(d) a fourth comparative ball having the first set of construction specifications and a micro surface roughness of about 4.0 times larger than the micro surface roughness of the first comparative ball;

wherein micro surface roughness include deviations from an ideal surface of 0.25 mm or less and wherein apex measurements are measured using standard USGA indoor test range testing protocols with balls launched in a pole orientation at an initial launch velocity of 242 fts, an initial launch angle of 11.3\xb0, and an initial launch spin of 44.7 revolutionss.
18. The golf ball of claim 17, wherein the surface roughening particles have an average particle size of 400 nm to 160 microns.
19. The golf ball of claim 17, wherein the surface roughening particles comprise 1 to 30 wt % of a total weight of the coating.
20. The golf ball of claim 17, wherein the first micro surface roughness constitutes an average micro surface roughness of an area covering at least 7.5% of an entire surface area of the ball, wherein the area covering at least 7.5% of the entire surface areas is dispersed over at least 36 discrete locations on the surface of the ball.