1. A method of building a test scenario to be executed on a communications testing system comprising:
providing a plurality of test functions from which a user may construct the test scenario, wherein the test scenario is comprised of at least one test sequence;
receiving a user selection of a plurality of test functions to create a plurality of test sequences, each test sequence associated with a communications channel of a plurality of communications channels, wherein each communications channel is capable of communicating via a plurality of interface protocols supported by the communications testing system;
receiving a synchronicity definition between a first test function of a first test sequence of the plurality of test sequences and a second test function of a second test sequence of the plurality of test sequences, including recognizing a user cursor movement between an output area of a first icon representing the first test sequence and an input area of a second icon representing the second test sequence.
2. The method of claim 1 further comprising:
displaying a line representing the synchronicity definition, the line connecting the output area of the first icon to the input area of the second icon.
3. The method of claim 1 wherein the interface protocols comprise at least one of telephony application program interfaces (TAPI), java telephony application program interfaces (JTAPI), CSTA, T1, E1, analog, M.100, S.100, S.410, CDR, WMI, VoIP, XoIP, Voice, H323, RTP and SIP.
4. The method of claim 1 further comprising:
receiving a user request to execute the test scenario;
invoking each of the test sequences of the test scenario on the corresponding associated communications channels such that the test sequences are executed simultaneously on the communications channels.
5. The method of claim 4 further comprising:
storing results for each of the test sequences.
6. The method of claim 5 further comprising:
receiving a user request to view the results;
providing a graphical representation of the results on a common time baseline for each of the communications channels in the test scenario.
7. A communications testing system comprising:
means for providing a plurality of test functions from which a user may construct a test scenario, wherein the test scenario is comprised of at least one test sequence;
means for receiving a user selection of a plurality of test functions to create a plurality of test sequences, each test sequence associated with a communications channel of a plurality of communications channels, wherein each communications channel is capable of communicating via a plurality of interface protocols supported by the communications testing system;
means for receiving a synchronicity definition between a first test function of a first test sequence of the plurality of test sequences and a second test function of a second test sequence of the plurality of test sequences, including means for recognizing a user cursor movement between an output area of a first icon representing the first test sequence and an input area of a second icon representing the second test sequence.
8. The communications testing system of claim 7 further comprising:
means for displaying a line representing the synchronicity definition, the line connecting the output area of the first icon to the input area of the second icon.
9. The communications testing system of claim 7 wherein the interface protocols comprise at least one of telephony application program interfaces (TAPI), java telephony application program interfaces (JTAPI), CSTA, T1, E1, analog, M.100, S.100, S.410, CDR, WMI, VoIP, XoIP, Voice, H323, RTP and SIP.
10. The communications testing system of claim 7 further comprising:
means for receiving a user request to execute the test scenario;
means for invoking each of the test sequences of the test scenario on the corresponding associated communications channels such that the test sequences are executed simultaneously on the communications channels.
11. The communications testing system of claim 10 further comprising:
means for storing results for each of the test sequences.
12. The communications testing system of claim 11 further comprising:
means for receiving a user request to view the results;
means for providing a graphical representation of the results on a common time baseline for each of the communications channels in the test scenario.
13. A communications testing system comprising a computer coupled to a network, the computer having software stored thereon which when executed causes the computer to perform operations comprising:
providing a plurality of test functions from which a user may construct a test scenario, wherein the test scenario is comprised of at least one test sequence;
receiving a user selection of a plurality of test functions to create a plurality of test sequences, each test sequence associated with a communications channel of a plurality of communications channels, wherein each communications channel is capable of communicating via a plurality of interface protocols supported by the computer;
receiving a synchronicity definition between a first test function of a first test sequence of the plurality of test sequences and a second test function of a second test sequence of the plurality of test sequences, including recognizing a user cursor movement between an output area of a first icon representing the first test sequence and an input area of a second icon representing the second test sequence.
14. The communications testing system of claim 13 wherein the software when executed causes the computer to perform further operations comprising:
displaying a line representing the synchronicity definition, the line connecting the output area of the first icon to the input area of the second icon.
15. The communications testing system of claim 13 wherein the interface protocols comprise at least one of telephony application program interfaces (TAPI), java telephony application program interfaces (JTAPI), CSTA, T1, E1, analog, M.100, S.100, S.410, CDR, WMI, VoIP, XoIP, Voice, H323, RTP and SIP.
16. The communications testing system of claim 13 wherein the software when executed causes the computer to perform further operations comprising:
receiving a user request to execute the test scenario;
invoking each of the test sequences of the test scenario on the corresponding associated communications channels such that the test sequences are executed simultaneously on the communications channels.
17. The communications testing system of claim 16 wherein the software when executed causes the computer to perform further operations comprising:
storing results for each of the test sequences.
18. The communications testing system of claim 17 wherein the software when executed causes the computer to perform further operations comprising:
receiving a user request to view the results;
providing a graphical representation of the results on a common time baseline for each of the communications channels in the test scenario.
19. A method of building a test scenario to be executed on a communications testing system comprising:
displaying a plurality of test functions from which a user may construct the test scenario;
receiving a user selection of a first test function;
displaying a first icon representing the first test function, the first icon having an output area;
receiving an association of the first icon with a first communications channel of a plurality of communications channels, wherein the first communications channel communicates via a first interface protocol of a plurality of interface protocols supported by the communications testing system;
receiving a user selection of a second test function;
displaying a second icon representing the second test function, the second icon having an input area;
receiving an association of the second icon with a second communications channel of the plurality of communications channels, wherein the second communications channel communicates via a second interface protocol of the plurality of interface protocols supported by the communications testing system;
receiving from a user a synchronicity definition between the first and second test functions by recognizing a cursor movement between the output area of the first icon and the input area of the second icon.
20. The method of claim 19 further comprising:
displaying a line representing the synchronicity definition, the line connecting the output area of the first icon to the input area of the second icon.
21. The method of claim 19 wherein the interface protocols comprise telephony application program interfaces.
22. The method of claim 19 wherein the interface protocols comprise at least one of telephony application program interfaces (TAPI), java telephony application program interfaces (JTAPI), CSTA, M.100, S.410, CDR, WMI, and SIP.
23. A communications testing system comprising:
means for defining at least one test function for controlling a first communications channel through which communications may pass using a first interface protocol of a plurality of interface protocols;
means for defining at least one test function for controlling a second communications channel through which communications may pass using a second interface protocol of the plurality of interface protocols;
means for graphically displaying icons representing the test functions to be performed on the first and second communications channels, each of the icons having an output area and an input area;
means for defining a synchronicity between the test functions of different communications channels such that the execution of a second test function on the second communications channel does not begin until completion of a first test function on the first communications channel, including means for recognizing a cursor movement from the output area of a first icon representing the first test function to the input area of a second icon representing the second test function, such that a connection between the output area of the first icon and the input area of the second icon is graphically displayed.
24. The communications testing system of claim 23 wherein the interface protocols comprise telephony application program interfaces.
25. The communications testing system of claim 23 wherein the interface protocols comprise at least one of telephony application program interfaces (TAPI), java telephony application program interfaces (JTAPI), CSTA, M.100, S.410, CDR, WMI, and SIP.
26. A communications testing system comprising a computer coupled to a network, the computer having software stored thereon which when executed causes the computer to perform operations comprising:
displaying a plurality of test functions from which a user may construct a test scenario;
receiving a user selection of a first test function;
displaying a first icon representing the first test function, the first icon having an output area;
receiving an association of the first icon with a first communications channel of a plurality of communications channels, wherein the first communications channel communicates via a first interface protocol of a plurality of interface protocols supported by the communications testing system;
receiving a user selection of a second test function;
displaying a second icon representing the second test function, the second icon having an input area;
receiving an association of the second icon with a second communications channel of the plurality of communications channels, wherein the second communications channel communicates via a second interface protocol of the plurality of interface protocols supported by the communications testing system;
receiving from a user a synchronicity definition between the first and second test functions by recognizing a cursor movement between the output area of the first icon and the input area of the second icon.
27. The communications testing system of claim 26 wherein the software when executed causes the computer to perform further operations comprising:
displaying a line representing the synchronicity definition, the line connecting the output area of the first icon to the input area of the second icon.
28. The communications testing system of claim 26 wherein the interface protocols comprise telephony application program interfaces.
29. The communications testing system of claim 26 wherein the interface protocols comprise at least one of telephony application program interfaces (TAPI), java telephony application program interfaces (JTAPI), CSTA, M.100, S.410, CDR, WMI, and SIP.
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 elevator comprising:
a car directed to move on a vertical path in a shaft, wherein the car contains
a first door opening,
a car door, which is a sliding door that opens and closes the first door opening,
a car door operator on a top edge of the first door opening for opening and closing the sliding door, the door operator containing a drive motor and a first connection element, and
a car sill, which contains a car door guide for controlling movement of the car door, and a first front edge, and
a plurality of landings, at a point where the car is arranged to stop, on each of the landings being
a second door opening,
a landing door, which is a sliding door that opens and closes the second door opening,
a landing sill, which contains a landing door guide for guiding movement of the landing door, and a second front edge, which can be brought opposite and essentially to a same horizontal level as the first front edge of the car sill when the car is at the landing, and
a landing door operator in a top part of the second door opening, the landing door operator containing a second connecting element, which extends in a horizontal direction over the second front edge of the landing sill into a space in the shaft such that when the first and the second connecting elements are opposite each other the first connecting element and the second connecting element can be coupled to each other for moving the landing door by the drive motor of the car door, wherein
when the car is at the landing, a first gap of at most 15 mm exists between the first front edge of the car sill and the second front edge of the landing sill, wherein the first gap is uniform along the car sill and the landing sill, except for a space into which the second connecting element in the shaft extends in the horizontal direction;
the car sill contains an opening, which opening is fitted to allow passage of the car sill over the second connecting element, wherein a second gap left between the landing sill and the car sill along the opening is greater than the first gap, wherein the opening forms a discontinuity to the car still;
a closing element incorporated in the car sill contains a covering surface essentially a size of the opening and the closing element is movable between an open position, in which the closing element is away from a point of the opening, and a closed position, in which the closing element is at the point of the opening, wherein the covering surface fills the opening such that a third gap between the closing element in the closed position and the second front edge of the landing sill is essentially equal to the first gap, wherein, when the car is at the landing, the first gap remains the same regardless of whether the closing element is in the closed position or in the open position; and a turning mechanism for moving the closing element between the open position and the closed position; and
the closing element is rotatably hinged to the car sill so that the closing element is rotatable below a level of a top surface of the car sill.
2. The elevator according to claim 1, wherein the turning mechanism comprises:
a turning motor, in which is a rotator shaft,
a crank, which is fixed to the rotator shaft, and
a turning arm, which is rotatably hinged at a lower end thereof to the crank at a distance from the rotator shaft and hinged at an upper end thereof so that the turning arm rotates with respect to the closing element.
3. The elevator according to claim 2, wherein the closing element comprises:
a guide,
a pawl, which is movable under a direction of the guide between a detached position and a locking position, wherein in the detaching position the pawl is retracted inside the closing element, and in the locking position the pawl protrudes from the closing element, and
a flexible element forcing the pawl towards the detaching position;
wherein the car sill comprises a support element, into joint action with which the pawl is fitted to extend in the locking position, with the pawl and the support element forming the locking means; and
wherein the turning arm is rotatably hinged at a top end thereof to the pawl.
4. The elevator according to claim 3, wherein the closing element comprises a detent, which in the closed position of the closing element rests against an edge of the opening from below.
5. The elevator according to claim 4, wherein the turning mechanism is fitted to push the pawl into joint action with the support element into the locking position against a spring force of the flexible element when turning the closing element to the closed position.
6. The elevator according to claim 1, wherein the closing element comprises locking means for detaching the closing element for locking in the closed position.
7. The elevator according to claim 6, wherein the closing element is hinged to the car sill below the level of the top surface of the car sill to rotate around a horizontal shaft in a plane perpendicular to the car sill such that in the closed position the covering surface of the closing element is on the level of the top surface of the car sill.
8. The elevator according to claim 6, wherein the turning mechanism comprises:
a turning motor, in which is a rotator shaft,
a crank, which is fixed to the rotator shaft, and
a turning arm, which is rotatably hinged at a lower end thereof to the crank at a distance from the rotator shaft and hinged at an upper end thereof so that the turning arm rotates with respect to the closing element.
9. The elevator according to claim 6, wherein the turning motor is an electric motor; and the turning mechanism comprises a first limit switch, which disconnects current from the turning motor in the open position of the closing element, and a second limit switch, which disconnects current from the turning motor in the closed position of the closing element.
10. The elevator according to claim 6, wherein the turning mechanism comprises a safety circuit for preventing driving of the car when the closing element is in the closed position and for allowing driving of the car when the closing element is in the open position.
11. The elevator according to claim 1, wherein the closing element is hinged to the car sill so that the closing element is rotatable below the level of the top surface of the car sill around a horizontal shaft in a plane perpendicular to the car sill such that in the closed position the covering surface of the closing element is on the level of the top surface of the car sill.
12. The elevator according to claim 11, wherein the turning mechanism comprises:
a turning motor, in which is a rotator shaft,
a crank, which is fixed to the rotator shaft, and
a turning arm, which is rotatably hinged at a lower end thereof to the crank at a distance from the rotator shaft and hinged at an upper end thereof so that the turning arm rotates with respect to the closing element.
13. The elevator according to claim 11, wherein the turning motor is an electric motor; and the turning mechanism comprises a first limit switch, which disconnects current from the turning motor in the open position of the closing element, and a second limit switch, which disconnects current from the turning motor in the closed position of the closing element.
14. The elevator according to claim 11, wherein the turning mechanism comprises a safety circuit for preventing driving of the car when the closing element is in the closed position and for allowing driving of the car when the closing element is in the open position.
15. The elevator according to claim 1, wherein the turning motor is an electric motor; and the turning mechanism comprises a first limit switch, which disconnects current from the turning motor in the open position of the closing element, and a second limit switch, which disconnects current from the turning motor in the closed position of the closing element.
16. The elevator according to claim 1, wherein the turning mechanism comprises a safety circuit for preventing driving of the car when the closing element is in the closed position and for allowing driving of the car when the closing element is in the open position.
17. The elevator according to claim 1, wherein the closing element is rotatable around a horizontal shaft in a plane perpendicular plane to the car sill.
18. The elevator according to claim 1, wherein when the car is at the landing, the first gap between the first front edge of the car sill and the second front edge of the landing sill is approximately 1-10 mm.
19. The elevator according to claim 1, wherein the discontinuity to the car still formed by the opening is at an upwardly-facing top surface of the car sill.
20. An elevator comprising:
a car directed to move on a vertical path in a shaft, wherein the car contains
a first door opening,
a car door, which is a sliding door that opens and closes the first door opening,
a car door operator on a top edge of the first door opening for opening and closing the sliding door, the door operator containing a drive motor and a first connection element, and
a car sill, which contains a car door guide for controlling movement of the car door, and a first front edge, and
a plurality of landings, at a point where the car is arranged to stop, on each of the landings being
a second door opening,
a landing door, which is a sliding door that opens and closes the second door opening,
a landing sill, which contains a landing door guide for guiding movement of the landing door, and a second front edge, which can be brought opposite and essentially to a same horizontal level as the first front edge of the car sill when the car is at the landing, and
a landing door operator in a top part of the second door opening, the landing door operator containing a second connecting element, which extends in a horizontal direction over the second front edge of the landing sill into a space in the shaft such that when the first and the second connecting elements are opposite each other the first connecting element and the second connecting element can be coupled to each other for moving the landing door by the drive motor of the car door, wherein
when the car is at the landing, a first gap of at most 15 mm exist between the first front edge of the car sill and the second front edge of the landing sill, wherein the first gap is uniform along the car sill and the landing sill, except for a space into which the second connecting element in the shaft extends in the horizontal direction;
the car sill contains an opening, which opening is fitted to allow passage of the car sill over the second connecting element, wherein a second gap between the landing sill and the car sill along the opening is greater than the first gap, wherein the opening forms a discontinuity in the car still;
a closing element incorporated in the car sill contains a covering surface of a size essentially that of the opening and the closing element is movable between an open position, in which the closing element is away from a point of the opening, and a closed position, in which the closing element is at the point of the opening, wherein the covering surface fills the opening such that a third gap between the closing element in the closed position and the second front edge of the landing sill is essentially equal to the first gap; and a turning mechanism for moving the closing element between the open position and the closed position; and
the closing element is rotatably hinged to the car sill so that the closing element is rotatable below a level of a top surface of the car sill,
wherein the car contains a footguard, which extends downwards essentially vertically from the first front edge of the car sill and the footguard contains a vertical chute at the point of the opening corresponding to the opening of the car sill, and the opening of the car sill and the chute are fitted to allow passage of the car sill and the footguard over the second connecting element, in which case the second gap left between the landing sill and the car sill at the point of the opening is greater than the first gap.