All The Claims

1. A golf putter head comprising:
a. a putter head body, wherein the putter head body has a putter base, a putter top, a putter striking face, and a putter rear wall;
b. a hosel connection on the putter head;
c. an opening sized to receive a standard regulation golf ball and a rim formed at the entrance of the opening;
d. an inside surface opening wall;
e. a tee hole having a substantially horizontal direction and is sized to receive a standard tee, wherein the tee hole communicates with the opening, wherein the tee hole is positioned to allow ejecting of a golf ball within the opening, when the tee is pressed into the tee hole.
2. The golf putter head of claim 1, wherein the putter rear wall has a curved profile.
3. The golf putter head of claim 1, wherein the inside surface is substantially horizontal, flat and circular.
4. The golf putter head of claim 1, wherein the tee hole has a side profile which is arc shaped.
5. The golf putter head of claim 1, further comprising a golf ball received within the opening.
6. The golf putter head of claim 1, further comprising a tee received within the tee hole.
7. The golf putter head of claim 1, wherein the tee hole is oriented along a swinging direction of the club.
8. The golf putter head of claim 1, wherein the tee hole is oriented along a swinging direction of the club.
9. The golf putter head of claim 1, wherein the tee hole is oriented at approximately 90\xb0 to a swinging direction of the club, wherein the tee hole is oriented on an outside side of the club.
10. The golf putter head of claim 1, wherein the tee hole is oriented at approximately 30-45\xb0 to a swinging direction of the club.
11. The golf putter head of claim 1, wherein the tee hole is oriented on an outside side of the club.
12. The golf putter head of claim 1, wherein the putter head body further comprises a rotational inertia insert fitted into a casing, wherein the rotational inertia insert has a higher density than the casing, wherein the opening is formed in at least a portion of the rotational inertia insert.
13. The golf putter head of claim 12, wherein the putter rear wall has a curved profile.
14. The golf putter head of claim 12, wherein the inside surface is substantially horizontal.
15. The golf putter head of claim 12, wherein the tee hole has a side profile which is arc shaped.
16. The golf putter head of claim 12, further comprising a golf ball received within the opening.
17. The golf putter head of claim 12, further comprising a tee received within the tee hole.
18. The golf putter head of claim 12, wherein the rotational inertia insert preferably has more than half of its mass more than a quarter of its width away from a center of mass of the rotational inertia insert.
19. The golf putter head of claim 12, wherein the rotational inertia insert preferably has more than half of its mass more than a quarter of its length away from a center of mass of the rotational inertia insert.

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 rechargeable electronic device (20, 80), comprising:
a magnetic rechargee interface (30, 90); and
a magnetic rechargor interface (40, 100) in electrical communication with the magnetic rechargee interface (30, 90),
wherein the magnetic rechargee interface (30, 90) and the magnetic rechargor interface (40, 100) are operable to simultaneously recharge the rechargeable electronic device (20, 80) and at least one additional rechargeable electronic device (20, 80) based on the magnetic rechargee interface (30, 90) being magnetically coupled to a battery charger (50, 110) and based on the magnetic rechargor interface (40, 100) being magnetically coupled to the at least one additional rechargeable electronic device (20, 80).
2. The rechargeable electronic device (20, 80) of claim 1, further comprising:
a rechargeable battery (25) electrically connected to a positive recharging node (N+) and a negative recharging node (N\u2212),
wherein the magnetic rechargee interface (30) includes a first magnetic electrical connector (31) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargee interface (30) further includes a second magnetic electrical connector (32) electrically connected to the negative recharging node (N\u2212).
3. The rechargeable electronic device (20, 80) of claim 2,
wherein the magnetic rechargor interface (40) includes a third magnetic electrical connector (41) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargor interface (40) further includes a fourth magnetic electrical connector (42) electrically connected to the negative recharging node (N\u2212).
4. The rechargeable electronic device (20, 80) of claim 1, further comprising:
a rechargeable battery (85) electrically connected to a positive recharging node (N+) and a negative recharging node (N\u2212),
wherein the magnetic rechargee interface (90) includes a first electrical connector (91) electrically connected to the positive recharging node (N+),
wherein the magnetic rechargee interface (90) further includes a second electrical connector (92) electrically connected to the negative recharging node (N\u2212).
5. The rechargeable electronic device (20, 80) of claim 4,
wherein the magnetic rechargee interface (90) further includes a magnet (93); and
wherein the first electrical connector (91) and the second electrical connector (92) are operationally dependent upon the magnet (93) being magnetically coupled to the battery charger (110).
6. The rechargeable electronic device (20, 80) of claim 4,
wherein the magnetic rechargor interface (100) includes a third electrical connector (101) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargor interface (100) further includes a fourth electrical connector (102) electrically connected to the negative recharging node (N\u2212).
7. The rechargeable electronic device (20, 80) of claim 6,
wherein the magnetic rechargor interface (100) further includes a magnet (103); and
wherein the third electrical connector (101) and the fourth electrical connector (102) are operationally dependent upon the magnet (103) being magnetically coupled to the at least one additional rechargeable electronic device (20, 80).
8. A magnetic electrical daisy chain connection system, comprising:
a batter charger (50, 110); and
a rechargeable electronic device (20, 80) including
a magnetic rechargee interface (30, 90), and
a magnetic rechargor interface (40, 100) in electrical communication with the magnetic rechargee interface (30, 90),
wherein the magnetic rechargee interface (30, 90) and the magnetic rechargor interface (40, 100) are operable to simultaneously recharge the rechargeable electronic device (20, 80) and at least one additional rechargeable electronic device (20, 80) based on the magnetic rechargee interface (30, 90) being magnetically coupled to the battery charger (50, 110) and based on the magnetic rechargor interface (40, 100) being magnetically coupled to the at least one additional rechargeable electronic device (20, 80).
9. The magnetic daisy electrical chain connection system of claim 8,
wherein the rechargeable electronic device (20) further includes a rechargeable battery (25) electrically connected to a positive recharging node (N+) and a negative recharging node (N\u2212),
wherein the magnetic rechargee interface (30) includes a first magnetic electrical connector (31) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargee interface (30) further includes a second magnetic electrical connector (32) electrically connected to the negative recharging node (N\u2212).
10. The magnetic daisy electrical chain connection system of claim 9,
wherein the magnetic rechargor interface (40) includes a third magnetic electrical connector (41) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargor interface (40) further includes a fourth magnetic electrical connector (42) electrically connected to the negative recharging node (N\u2212).
11. The magnetic daisy electrical chain connection system of claim 8,
wherein the rechargeable electronic device (80) further includes a rechargeable battery (85) electrically connected to a positive recharging node (N+) and a negative recharging node (N\u2212),
wherein the magnetic rechargee interface (90) includes a first electrical connector (91) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargee interface (90) further includes a second electrical connector (92) electrically connected to the negative recharging node (N\u2212).
12. The magnetic daisy electrical chain connection system of claim 11,
wherein the magnetic rechargee interface (90) further includes a magnet (93); and
wherein the first electrical connector (91) and the second electrical connector (92) are operationally dependent upon the magnet (93) being magnetically coupled to the battery charger (110).
13. The magnetic daisy electrical chain connection system of claim 11,
wherein the magnetic rechargor interface (100) includes a third electrical connector (101) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargor interface (100) further includes a fourth electrical connector (102) electrically connected to the negative recharging node (N\u2212).
14. The magnetic daisy electrical chain connection system of claim 13,
wherein the magnetic rechargor interface (100) further includes a magnet (103); and
wherein the third electrical connector (101) and the fourth electrical connector (102) are operationally dependent upon the magnet (103) being magnetically coupled to the at least one additional rechargeable electronic device (20, 80).
15. A magnetic daisy electrical chain connection system, comprising:
a first rechargeable electronic device (20, 80) including
a first magnetic rechargee interface (30, 90), and
a magnetic rechargor interface (40, 100) in electrical communication with the first magnetic rechargee interface (30, 90); and

a second rechargeable electronic device (20, 80) including a second magnetic rechargee interface (30, 90),
wherein the first magnetic recharge interface (30, 90), the first magnetic rechargor interface (40, 100) and the second magnetic rechargee interface (30, 90) are operable to simultaneously recharge the first rechargeable electronic device (20, 80) and the second additional rechargeable electronic device (20, 80) based on the first magnetic rechargee interface (30, 90) being magnetically coupled to a battery charger (50, 110) and based on the magnetic rechargor interface (40, 100) being magnetically coupled to the second magnetic rechargee interface (30, 90).
16. The magnetic daisy electrical chain connection system of claim 15,
wherein the first rechargeable electronic device (20) further includes a rechargeable battery (25) electrically connected to a positive recharging node (N+) and a negative recharging node (N\u2212),
wherein the first magnetic rechargee interface (30) includes a first magnetic electrical connector (31) electrically connected to the positive recharging node (N+), and
wherein the first magnetic rechargee interface (30) further includes a second magnetic electrical connector (32) electrically connected to the negative recharging node (N\u2212).
17. The magnetic daisy electrical chain connection system of claim 16,
wherein the magnetic rechargor interface (40) includes a third magnetic electrical connector (41) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargor interface (40) further includes a fourth magnetic electrical connector (42) electrically connected to the negative recharging node (N\u2212).
18. The magnetic daisy electrical chain connection system of claim 15,
wherein the first rechargeable electronic device (80) further includes a rechargeable battery (85) electrically connected to a positive recharging node (N+) and a negative recharging node (N\u2212),
wherein the first magnetic rechargee interface (90) includes a first electrical connector (91) electrically connected to the positive recharging node (N+), and
wherein the first magnetic rechargee interface (90) further includes a second electrical connector (92) electrically connected to the negative recharging node (N\u2212).
19. The magnetic daisy electrical chain connection system of claim 18,
wherein the first magnetic rechargee interface (90) further includes a magnet (93); and
wherein the first electrical connector (91) and the second electrical connector (92) are operationally dependent upon the magnet (93) being magnetically coupled to the battery charger (110).
20. The magnetic daisy electrical chain connection system of claim 18,
wherein the magnetic rechargor interface (100) includes a third electrical connector (101) electrically connected to the positive recharging node (N+), and
wherein the magnetic rechargor interface (100) further includes a fourth electrical connector (102) electrically connected to the negative recharging node (N\u2212).
21. The magnetic daisy electrical chain connection system of claim 20,
wherein the magnetic rechargor interface (100) further includes a magnet (103); and
wherein the third electrical connector (101) and the fourth electrical connector (102) are operationally dependent upon the magnet (103) being magnetically coupled to the second rechargee interface (90) of the second rechargeable electronic device (80).

1. A method of insuring against satellite launch failure including rescue reservations comprising the steps of:
purchasing a satellite for orbiting the earth;
obtaining a launch insurance policy prior to launching the satellite from Earth, wherein the launch insurance policy including a rescue mission provision from a guarantor covering the launch of the satellite into an unintended orbit, the rescue mission provision providing for the payment to a rescue mission provider of a rescue mission in the event that the satellite is launched into an unintended orbit but otherwise remains functional, the rescue mission provision specifying that the rescue mission shall include 1) providing a extension spacecraft having guidance, navigation and control systems for position control of the extension spacecraft and satellite combination and having an onboard propellant supply sufficient for moving the extension spacecraft and satellite combination from one orbit to another orbit, 2) launching the extension spacecraft into space, 3) mechanically connecting the extension spacecraft to the satellite launched into an unintended orbit, and 4) utilizing the extension spacecraft’s guidance, navigation and control systems and onboard propellant supply to move the satellite from the unintended orbit to an intended operational orbit;
triggering the rescue mission provision in the event that the satellite is launched into an unintended orbit but the satellite otherwise remains functional;
calculating the rescue mission costs;
paying a rescue mission provider for a rescue mission by the guarantor in accordance with the launch insurance policy; and
initiating the rescue mission for moving the satellite from the unintended orbit to an intended operational orbit, comprising the additional steps of:
providing a extension spacecraft having guidance, navigation and control systems for position control of the extension spacecraft and satellite combination and having an onboard propellant supply sufficient for moving the extension spacecraft and satellite combination from one orbit to another orbit;
launching the extension spacecraft into space;
moving the extension spacecraft to within proximity of the satellite launched into an unintended orbit;
mechanically connecting the extension spacecraft to the satellite launched into an unintended orbit; and
utilizing the extension spacecraft’s guidance, navigation and control systems and onboard propellant supply to move the satellite from the unintended orbit to an intended operational orbit.
2. The method of insuring against satellite launch failure of claim 1 wherein the extension spacecraft is unmanned.
3. The method of insuring against satellite launch failure of claim 1 further comprising the steps of:
obtaining a rescue mission failure insurance policy from a guarantor which provides for financial compensation to the policy holder in the event of failure of the rescue mission to move the satellite from an unintended orbit to an intended orbit.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

What is claimed is:

1. A device for expelling a product from a vending machine, said vending machine comprising a containment frame, a plurality of supporting shelves provided within said containment frame, at least one dispensing tray which is slidingly mounted on a respective supporting shelf so as to move between a position for loading products to be dispensed, in which it is at least partially extracted from said containment frame, and a position for unloading said products to be dispensed, in which it is fully contained within said containment frame, at least one collection tray for the products unloaded from the respective, or each, said dispensing tray which can be accessed from outside, and at least one helical dispenser element which lies above a respective dispensing tray and is suitable to accommodate, between at least two consecutive turns, a product to be dispensed, so as to make it advance along the respective dispensing tray by rotating about its own longitudinal axis, until it falls by gravity into said collection tray, further comprising control means which are suitable to drive the motor of the respective helical dispenser element so as to make it perform an additional partial rotation if said product fails to fall from the respective dispensing tray, so as to ensure the fall of said product into said collection tray.
2. The device according to claim 1, wherein said control means comprise sensor means which are arranged downstream of the or each helical dispenser element and are suitable to check whether the product chosen by the consumer has fallen from the corresponding dispensing tray.
3. The device according to claim 2, further comprising a monitoring and control unit which is suitable to receive, from said sensor means, an onoff signal related to the expulsion of said product from the corresponding dispensing tray and, in case of failed expulsion, to drive the motor of the respective helical dispenser element so as to make it perform an additional quarter turn, said monitoring and control unit being suitable to memorize the occurrence of the rotation of the or each helical dispenser element through said additional quarter turn, so as to impart thereto, during a subsequent preselection of the corresponding product, a rotation which is the full-turn complement of said additional quarter turn.
4. The device according to claim 2, wherein said sensor means comprises at least one sensor for each spring-loaded dispenser element provided along a falling path of a product, said falling path lying between the respective dispensing tray and the, or the respective, collection tray.
5. The device according to claim 2, wherein said sensor means comprises at least one sensor which is arranged at said collection tray and is suitable to detect the presence therein of a product at least within a time period which is predefined starting from when said product is preselected.
6. The device according to claim 5, comprising a timer device which is suitable to activate the respective sensor for a predefined time period starting from when the consumer preselects said product.
7. The device according to claim 6, wherein said timer device comprises a time-controlled counter which can be activated by said monitoring and control unit when a product is preselected and can be deactivated by said unit when it receives the signal indicating successful expulsion of said product, which is sent to it by the respective sensor.