Abstract: A level and protractor tool (100) includes a body (102) with three sections. The first section (106) includes a spring clip (108) mounted on the body. The spring clip is adapted to be attached to an item that is to be bent or otherwise measured with the level and protractor tool (FIG. 6). The second section (128) is contiguous with the first section. The second section includes a mounting pin (132) defining a rotational axis for both a pointer (134) and a degree wheel (136) having a pendulum weight (306). The degree wheel and the pointer are positioned with respect to the mounting pin for rotational movement about the mounting pin independent of one another. The third section (142) includes a bubble level or spirit vial (144) and is attached perpendicularly to the second section and parallel to the mounting pin.

Abstract: Enhanced subscriber line monitoring is provided for telephone calls in a telecommunications network. A telecommunications switch (102) is coupled to adjunct processor (104). Subscriber lines (110) terminated by the telecommunications switch are selectively monitored. Call identifying information and call content received by the telecommunications switch is forwarded to the adjunct processor for storage and analysis. The analysis includes determining the class of call content, e.g., voice or data. Call content is used to determine quality associated with a call. The call analysis is used for network management, new service development, long term usage forecasting, service differentiation for billing and targeted marketing opportunities.

Abstract: A method and apparatus are described for computing the value at a given percentile of a population and the percentile of a given value in the population. In the described system, computing efficiencies are achieved by storing received values in “buckets” and performing percentile calculations based on values in the buckets.

Abstract: In response to an emergency event, an emergency announcement system (100) causes display of an escape route based upon a room location. A sensor (104) detects an emergency event. The sensor data (106) from the sensor relating to the emergency event is transmitted to an emergency server (122), the emergency server (122) determines the escape route and the escape route is sent to a display device (118) for use by the building occupants to escape the emergency.

Abstract: A method is provided for retrofitting an existing dead-bolt assembly with an electrically operated actuator (12, 112, 212, 312, 800). The electrically operated actuator automatically operates the dead-bolt assembly while preserving manual operation of the lock. The actuator assembly has rotating means for rotation of the drive bar (18), which in turn extends or retracts the bolt (14) of the lock. The rotating means may be a lever (28, 128, 238, 328, 438, 818) attached to the drive bar (18) that is pivotable about the axis of rotation of the drive bar (18). The actuator assembly has driving means that forces the rotating means to rotate. The driving means is responsive to an electrical signal, which, for example, may be initiated from a remote-controlled transmitter (502, 602). The driving means may include a motor (20, 120, 220) for rotating a rod (22, 122, 222, 322) that in turn operates an assembly that rotates or drives the rotating means.

Abstract: A method is provided for retrofitting an existing dead-bolt assembly with an electrically operated actuator (12, 112, 212, 312, 800). The electrically operated actuator automatically operates the dead-bolt assembly while preserving manual operation of the lock. The actuator assembly has rotating means for rotation of the drive bar (18), which in turn extends or retracts the bolt (14) of the lock. The rotating means may be a lever (28,128, 238, 328, 438, 818) attached to the drive bar (18) that is pivotable about the axis of rotation of the drive bar (18). The actuator assembly has driving means that forces the rotating means to rotate. The driving means is responsive to an electrical signal, which, for example, may be initiated from a remote-controlled transmitter (502, 602). The driving means may include a motor (20, 120, 220) for rotating a rod (22, 122, 222, 322) that in turn operates an assembly that rotates or drives the rotating means.

Abstract: An electrically operated actuator (12, 112, 212, 312, 800) automatically operates dead-bolt assemblies and other locks, while preserving manual operation of the locks. The actuator assembly has rotating means for rotation of the drive bar (18), which in turn extends or retracts the bolt (14) of the lock. The rotating means may be a lever (28, 128, 238, 328, 438, 818) attached to the drive bar (18) that is pivotable about the axis of rotation of the drive bar (18). The actuator assembly has driving means that forces the rotating means to rotate. The driving means is responsive to an electrical signal, which, for example, may be initiated from a remote-controlled transmitter (502, 602). The driving means may include a motor (20, 120, 220) for rotating a rod (22, 122, 222, 322) that in turn operates an assembly that rotates or drives the rotating means.

Abstract: An electrically operated actuator (12, 112, 212, 312) automatically operates dead-bolt assemblies and other locks, while preserving manual operation of the locks. The actuator assembly has rotating means for rotation of the drive bar (18), which in turn extends or retracts the bolt (14) of the lock. The rotating means may be a lever (28, 128, 238, 328, 438) attached to the drive bar (18) that is pivotable about the axis of rotation of the drive bar (18). The actuator assembly has driving means that forces the rotating means to rotate. The driving means is responsive to an electrical signal, which, for example, may be initiated from a remote-controlled transmitter (502, 602). The driving means may include a motor (20, 120, 220) for rotating a rod (22, 122, 222, 322) that in turn operates an assembly that rotates or drives the rotating means.