Abstract: An elevator simulator is provided. Aspects includes an elevator car and a simulation control element associated with the elevator car and being configured to perform an elevator ride simulation for the elevator car. Aspects also include a simulation controller configured to perform the elevator car simulation by operating the simulation control element to simulate an elevator ride for the elevator car.

Abstract: An illustrative example embodiment of a system for detecting drift of a building includes a detector that detects at least one horizontal position of elevator roping within a hoistway in or on the building at a selected vertical location. A processor determines at least one characteristic of drift of the building based on information from the detector regarding the detected at least one horizontal position, information regarding tension on the elevator roping, information regarding a density of the elevator roping, and a relationship between the selected vertical location and a length of the elevator roping.

Abstract: An illustrative example elevator system includes a hoistway that establishes a vertical pathway. The hoistway has an interior border established by a plurality of stationary boundaries. The interior border defines a first area. An elevator car is within the hoistway and has an exterior border that defines a second area that is smaller than the first area. At least one hoistway liner assembly is situated in the hoistway. The hoistway liner assembly includes a plurality of bumpers that collectively establish a protected area that is smaller than the first area and larger than the second area such that the elevator car can move through the protected area. The protected area prevents contact between the load bearing assembly and the interior border of the hoistway.

Abstract: An illustrative example method of controlling an elevator situated in a hoistway of a building includes detecting sway of the building, determining characteristics of the detected sway including a plurality of frequencies and associated periods of the sway, determining an expected sway of an elongated member of the elevator system based on the determined characteristics, and controlling at least one of position and movement of an elevator car in the hoistway based on the expected sway.

Abstract: An illustrative example elevator system includes a hoistway that establishes a vertical pathway. The hoistway has an interior border established by a plurality of stationary boundaries that each have a height aligned with a vertical length of the hoistway. Each of the stationary boundaries has a width generally perpendicular to the height. An elevator car is within the hoistway. At least one vertically extending load bearing assembly includes a plurality of elongated load bearing members extending along a vertical path and facilitating movement or support of the elevator car. At least one hoistway liner assembly is situated in the hoistway. The hoistway liner assembly includes a plurality of bumpers that each have an axis that is generally perpendicular to the vertical length of the hoistway. The axes of at least two of the bumpers are non-parallel.

Abstract: An elevator simulator is provided. Aspects includes an elevator car and a simulation control element associated with the elevator car and being configured to perform an elevator ride simulation for the elevator car.

Abstract: Elevator car guiding devices including a roller guide frame including a mounting base to be mounted to an elevator car, a first roller supported on the mounting base, the first roller having a first roller wheel configured to engage with and rotate along a guide rail and prevent movement of the elevator car in a first direction, a second roller supported on the mounting base, the at least one second roller having a second roller wheel configured to engage with and rotate along the guide rail and prevent movement of the elevator car in a second direction, and a motion state sensing assembly mounted to the roller guide frame and configured to measure a motion state of the elevator car within an elevator shaft of the elevator system.

Abstract: A compressive brace for intraarticular needle procedures that provides constant radial compression. One embodiment comprises a non-pneumatic releasable compressive planar device or tubular sleeve, a method to apply tension to the device or sleeve comprising a non-stretchable material or stretchable elastomeric material with fasteners or external compression straps or both resulting in fluid displacement and increased intraarticular fluid pressure, a design that displaces fluid within the joint to low pressure areas to be readily accessible by needle or catheter via specific anatomic portals so that the joint can be completely aspirated, tension and pressure can be released so that fluid can be easily removed or injected into the joint, and integration of the device into arthrocentesis, surgical, diagnostic, and joint therapy kits. Some embodiments define a window or aperture to allow pooling of fluid and to introduce needles and catheters.

Abstract: Percutaneous musculoskeletal lavage devices, and procedures for simultaneous therapeutic and diagnostic purposes, performed with a needle or catheter and various combinations of a syringe, reciprocating syringe, stop-cock, check valves, depth indicator, compressive sleeve or brace, and specialty catheters, provided individually or in a kit. The lavage fluid can be analyzed for factors of medical interest and used to determine personalized treatment, and has intrinsic medical benefit by virtue of clearing the tissues of noxious substances in an enhanced fashion.

Abstract: Methods and systems for monitoring a dynamic compensation control system of an elevator system are provided. The methods and systems include monitoring a first motion state sensor signal generated by a first motion state sensor, the first motion state sensor associated with an elevator machine, monitoring a second motion state sensor signal generated by a second motion state sensor, the second motion state sensor located on an elevator car, determining an operational status of the second motion state sensor based on an analysis of the first motion state sensor signal and the second motion state sensor signal, and when it is determined that a failure status of the second motion state sensor is present, the method further comprises deactivating a dynamic compensation control mode of operation of the elevator system.

Abstract: An illustrative example elevator system includes a hoistway that establishes a vertical pathway. The hoistway has an interior border established by a plurality of stationary boundaries that each have a height aligned with a vertical length of the hoistway. Each of the stationary boundaries has a width generally perpendicular to the height. An elevator car is within the hoistway. At least one vertically extending load bearing assembly includes a plurality of elongated load bearing members extending along a vertical path and facilitating movement or support of the elevator car. At least one hoistway liner assembly is situated in the hoistway. The hoistway liner assembly includes a plurality of bumpers that each have an axis that is generally perpendicular to the vertical length of the hoistway. The axes of at least two of the bumpers are non-parallel.

Abstract: Methods and systems of controlling elevators including detecting a landing stop for an elevator car, measuring load information associated with the stop, controlling stopping of the elevator at the landing using a machine based on at least one of the detected landing and the measured load information and performing dynamic compensation control of a motion state of the elevator with a computing system and the elevator machine. The dynamic compensation control includes receiving motion state information related to at least one motion state of the elevator car at the computing system, receiving the landing and load information at the computing system, applying a filter to the received information and generating a first control signal, and producing a control output from the first control signal to control the elevator machine to minimize oscillations, vibrations, excessive position deflections, and/or bounce of the elevator car at the detected landing.

Abstract: Systems and methods are disclosed herein to provide infrared imaging systems with improved electronics architectures. In one embodiment, an infrared imaging system is provided that includes an infrared imaging sensor for capturing infrared image data and a main electronics block for efficiently processing the captured infrared image data. The main electronics block may include a plurality of vector processors each configured to operate on multiple pixels of the infrared image data in parallel to efficiently exploit pixel-level parallelism. Each vector processor may be communicatively coupled to a local memory that provides high bandwidth, low latency access to a portion of the infrared image data for the vector processor to operate on. The main electronics block may also include a general-purpose processor configured to manage data flow to/from the local memories and other system functionalities. The main electronics block may be implemented as a system-on-a-chip.

Abstract: Elevator car guiding devices including a roller guide frame including a mounting base to be mounted to an elevator car, a first roller supported on the mounting base, the first roller having a first roller wheel configured to engage with and rotate along a guide rail and prevent movement of the elevator car in a first direction, a second roller supported on the mounting base, the at least one second roller having a second roller wheel configured to engage with and rotate along the guide rail and prevent movement of the elevator car in a second direction, and a motion state sensing assembly mounted to the roller guide frame and configured to measure a motion state of the elevator car within an elevator shaft of the elevator system.

Abstract: An illustrative example elevator rope tensioning assembly includes a tensioning sheave configured to guide movement of a compensation rope. A tensioning mass is coupled with the tensioning sheave to provide weight urging the sheave in a tensioning direction. A rail structure guides vertical movement of the tensioning mass. A frictional damper continuously resists vertical movement of the tensioning mass.

Abstract: Systems and methods are disclosed herein to provide infrared imaging systems with improved electronics architectures. In one embodiment, an infrared imaging system is provided that includes an infrared imaging sensor for capturing infrared image data and a main electronics block for efficiently processing the captured infrared image data. The main electronics block may include a plurality of vector processors each configured to operate on multiple pixels of the infrared image data in parallel to efficiently exploit pixel-level parallelism. Each vector processor may be communicatively coupled to a local memory that provides high bandwidth, low latency access to a portion of the infrared image data for the vector processor to operate on. The main electronics block may also include a general-purpose processor configured to manage data flow to/from the local memories and other system functionalities. The main electronics block may be implemented as a system-on-a-chip.

Abstract: Recording commercial, legal, and other interactions enable organizations and individuals to meet regulatory compliance, improve customer service, and eliminate fraud. The process of recording those interactions is progressively being performed by software products and delivered as an Internet or WAN hosted service by providers. Recording products are further becoming more functional, by adding additional capabilities onto the base process of recording, such as interaction analysis and reporting. The purpose of the invention is to enable providers to customize, fulfill, and invoice the services and capabilities of such a recording function offered to individuals and organizations of variable size and requirement.

Abstract: The present disclosure provides systems and methods for automatically controlling hot glue level in a book-binding apparatus. The embodiments include monitoring glue level in a reservoir and measuring glue temperature in the reservoir. If the glue level is below a level threshold value and the glue temperature value is above a temperature threshold, the system dispenses a predetermined amount of meltable glue pellets into the reservoir.

Abstract: An elevator load bearing assembly (20) includes a plurality of cords (22) within a jacket (24). The jacket has a plurality of grooves (32, 34, 36, 38 40) spaced along the length of the belt assembly. Each groove has a plurality of portions (50, 52, 54, 56) aligned at an oblique angle (A, B) relative to a longitudinal axis (48) of the belt (20). In one example, the grooves are separated such that there is no longitudinal overlap between adjacent grooves. In another example, transitions (60, 64) between the obliquely aligned portions are at different longitudinal positions on the belt. Another example includes a combination of the different longitudinal positions and the non-overlapping groove placement.

Abstract: A telematics unit monitors location information and a vehicle information bus for diagnostic and other vehicle information and a request for services command initiated with hardware coupled to the telematics unit, remotely from another device, or automatically upon the occurrence of a vehicle trigger. The telematics unit composes a request message that includes vehicle location information and an indicator of a type of services requested, and transmits the message to a telematics server. The server performs a table lookup to find entries containing information of requested services available within a predetermined range of the vehicle. The server transmits a response message to the telematics unit, or other device, for presentation of the requested information. The response message may include a file containing promotional information relative to the service provider(s). The TCU may transmit a message that includes metrics relative to how a user played the promotional information file.