Abstract: The invention relates to an industrial robot having an apparatus for driving an attachable/detachable four-bar link mechanism, comprising: a base frame having a rotating joint for a robot body; a pivot frame which is coupled to the rotating joint and which has a rotating joint; a column frame which is coupled to the rotating joint of the pivot frame, and which has a straight-line joint; a motor arranged in the pivot frame to rotate the column frame; a decelerator attachably/detachably mounted on the rotating joint of the pivot frame or directly on the pivot frame to receive driving force from the motor; and a four-bar link installed between an output shaft of the decelerator and the column frame.

Abstract: A robot includes a first shaft housing, a second shaft housing rotatably assembled to the first shaft housing, a driver, a cable assembly, a transmission mechanism and a cable pass-through assembly. The driver is assembled within the first shaft housing for driving the second shaft housing to rotate relative to the first shaft housing. The cable pass-through assembly is assembled within the second shaft housing and defines a cable passage hole coaxial with the second shaft housing. The cable assembly passes through the cable passage hole of the cable pass-through assembly and electronically connects with the driver. The transmission mechanism is sleeved on the cable pass-through assembly for transmitting the driving force generated by the driver to the second shaft housing, thereby driving the second shaft housing to rotate relative to the first shaft housing.

Abstract: A system for navigating around healthy organs to reach a desired site of surgery is provided. The system includes an articulating shaft capable of navigating around healthy organs in a body. The articulating shaft includes a plurality of shaft sections and one or more movable joints. Further, the one or more movable joints have a two-degree of freedom motion. The two-degree of freedom joints operatively connect the plurality of shaft sections. Moreover, the system includes one or more cables which aid in controlling the movements of the movable joints. Additionally, the system can include a variety of medical tools located at the tip of a shaft section of the articulating shaft, wherein the medical tool aids in performing the medical activity.

Abstract: A transmission apparatus includes a drive member, a driven member, and an at least partially flexible transmission coupled to the drive member and the driven member. The flexible transmission is configured to cause movement of the driven member in response to movement of the drive member. The flexible transmission includes a first tension element having a first portion coupled to the drive member, a second portion coupled to the driven member, and an intermediate portion between the first portion and the second portion. The transmission apparatus also includes an adjustment member that engages the intermediate portion of the first tension element. The adjustment member is configured to be adjusted to vary a tension force applied to the first tension element.

Abstract: A transmission includes a drive member, a driven member having a connection mechanism, and an at least partially flexible transmission coupled to the drive member and the connection mechanism of the driven member and configured to cause movement of the driven member in response to movement of the drive member. The connection mechanism is configured to be adjusted to vary a tension force applied to the flexible transmission.

Abstract: A robot has a robot arm, a support structure, and a movable platform. The platform includes a cantilevered member coupled to a guide of the support structure such that motion of the platform is directed along a first direction. The robot further includes first and second timing belts having portions that extend along the first direction and that are disposed on opposite sides of the cantilevered member, and first and second shafts movable with the movable platform. The shafts are coupled to the respective timing belts, to the robot arm such that rotation of the first shaft imparts angular motion to the robot arm and rotation of the second shaft imparts radial motion. The robot also includes a third timing belt to which the platform is coupled and by which it is moved. Motors are provided that impart movement to the timing belts.

Abstract: A robot arm assembly includes a turret, a lower arm pivotable with respect to the turret, and an upper arm pivotable with respect to the lower arm.

Abstract: A flexible and steerable structure for non-destructive inspection, the structure including a longitudinal body and at least one actuator enabling the curvature of at least a portion of the longitudinal body to be modified, the actuator being carried by a support associated with the longitudinal body and including a distal portion that is spaced apart or that is spaceable apart from the longitudinal body and that is connected to a portion of the longitudinal body by a traction line.

Abstract: Rotary to linear and linear to rotary motion conversion devices that consist of rotational elements, at least two flexible linking elements, and motion elements are disclosed. Rotary elements and motion elements are connected by the flexible linking members, which twist around each other when rotational elements rotate and thus produce pulling force on the motion elements. A methodology to design the motion conversion devices and robotic joints incorporating the motion conversion devices are disclosed.

Abstract: Disclosed herein are embodiments of an articulated robot wrist. One embodiment comprises a first body comprising first and second ends, the first end being for mounting on a robot component which is rotatable around a first axis; a second body comprising first and second ends, the first end being rotatably mounted on said second end of said first body around a second axis inclined with respect to said first axis; and a third body comprising a first and a second end, the first end being rotatably mounted on said second end of said second body around a third axis inclined with respect to said second axis. The first and third axes form an angle substantially of 90° with respect to said second axis, and wherein in at least one position of said robot wrist said first and third axes are substantially aligned with each other.

Abstract: The invention concerns a fluidically operable manipulator made up of several manipulator segments stacked along an extension curve, each comprising at least one connecting plate and at least two fluidically separated fluid chambers spaced apart on the connecting plate at right-angles to the extension curve, wherein each of the fluid chambers has at least one elastically deformable wall section which is designed to make possible, on pressurisation of the respective fluid chamber with a fluid, a change in volume of the fluid chamber for a linear movement substantially parallel to the extension curve, and wherein a main extension surface of the connecting plate is provided for an arrangement at least substantially at right-angles to the extension curve, wherein the two or more fluid chambers are made integral with the connecting plate or plates.

Abstract: A roll joint utilizes at least one tendon guide surface to guide actuator tendons for distal roll off and on their respective drums on a central shaft of the roll joint. The tendon guide surface turns the actuator tendon in an axial direction in a more compact space than might be required for a pair of pulleys, while using fewer parts with larger features more easily formed on a small scale.

Abstract: A power transmission mechanism and a robot arm using the same are described. The power transmission mechanism at least includes a first power source, a second power source, a plurality of steel ropes, a support arm component, a stopping component and a joint component. The stopping component is disposed in the support arm component and includes a first stopping unit and a second stopping unit that rotate coaxially. The first and second power sources and the joint component are disposed at two ends of the support arm component. The first and second power sources transmit power via the first stopping unit and the second stopping unit through the plurality of steel ropes to drive the joint component to perform a two-degree-of-freedom motion. The support arm component and the joint component can be applied in an upper arm and an elbow of a robot arm, thereby constituting a multi-degree-of-freedom robot arm.

Abstract: A multi-fingered underactuated mechanical grasping system driven by a single actuator, yet can grasp objects spanning a wide range of size, shape, and mass. A member for moving a link relative to a base acts in parallel to a direction of compliance of a joint between the link and the base. The joint has a plurality of degrees of freedom. The number of members for moving links in the grasping system is less than the number of degrees of freedom in the grasping system.

Abstract: Disclosed are an orientation controller based on a parallelogram linkage, a mechanical arm, an anthropomorphic gripper and components thereof such as mechanical digits suitable for use, for example, in the field of keyhole surgery.

Abstract: A robot has a robot arm, a support structure, and a movable platform. The platform includes a cantilevered member coupled to a guide of the support structure such that motion of the platform is directed along a first direction. The robot further includes first and second timing belts having portions that extend along the first direction and that are disposed on opposite sides of the cantilevered member, and first and second shafts movable with the movable platform. The shafts are coupled to the respective timing belts, to the robot arm such that rotation of the first shaft imparts angular motion to the robot arm and rotation of the second shaft imparts radial motion. The robot also includes a third timing belt to which the platform is coupled and by which it is moved. Motors are provided that impart movement to the timing belts.

Abstract: In a “tip following” robotic arm, the apertures through which control cables pass are arranged to ensure that the cables are maintained in contact with at least a part of the aperture, leading to a more stable and controllable arrangement.

Abstract: A system for externally actuating an animatronic figure. The system including a first robotic mechanism configured as a remote center mechanism for rotating a first rod about a first remote center point. The first rod is attached to a first driven part of the figure with the first remote center point spaced apart from the figure. The system includes a second robotic mechanism rotating a second rod about a second remote center point. The second rod is attached to the second driven part of the animatronic figure, and the second remote center point is spaced apart from the animatronic figure. The system includes a third robotic mechanism rotating a third rod about a remote center point, with the third rod attached to a third driven part of the figure, and the three robotic mechanisms are concurrently operable via a computer-based controller to provide the figure with twenty-one degrees of freedom.

Abstract: A robotic module comprising a housing having opposed first and second sides, and comprising a base, a first end comprising a first drive feature on one of the first and second sides, and a second end comprising a second drive feature on one of the first and second sides. A first rotatable hub is mounted on the first end of the housing and comprises a third drive feature on the side of the housing opposite the side of the first drive feature. A second rotatable hub is mounted on the second end of the housing and comprises a fourth drive feature on the side of the housing opposite the side of the second drive feature. The robotic module is further comprised of a coupling for synchronously rotating the first and second rotatable hubs. A first robotic module may be engaged with a second robotic module to form a robot.

Abstract: A robot arm assembly includes a hollow wrist housing, a wrist rotatably connected to the wrist housing, a first driver, a first transmission mechanism, a rotary member, a second driver, and a second transmission mechanism. The first driver is assembled within the wrist housing for driving the wrist to rotate relative to the wrist housing along a first rotary axis. The first transmission mechanism is also assembled within the wrist housing and is positioned between the wrist and the first driver. The rotary member is rotatably assembled to a distal end of the wrist along a second rotary axis. The second driver is assembled within the wrist housing for driving the rotary member to rotate. The second transmission mechanism is assembled within the wrist housing, and is positioned between the second driver and the rotary member.

Abstract: The present disclosure introduces modular apparatuses for mechanical devices. In one embodiment, a chain joint is described. The chain joint may include a rotating drum having an attachment point. Further, the chain joint may also include hydraulic cylinders connected to the rotating drum. Lengths of chain may be used to connect the hydraulic cylinders to the rotating drum via the attachment point. Another embodiment describes a robotic apparatus incorporating the chain joint. Other embodiments are also described.

Abstract: A robotic arm assembly includes a support body, a first segment, a second segment, a first driving device, a second driving device, a first bevel gear, a second bevel gear, a third bevel gear, a first transmission mechanism, and a second transmission mechanism. The first segment is rotatably connected to an end of the support body. The second segment is rotatably connected to the first segment. The first driving device and the second driving device are received in the support body. The first bevel gear and the second bevel gear are rotatably sleeved on opposite ends of the first segment, and mesh with the third bevel gear fixed to the second segment. The first transmission mechanism transmits the power of the first driving member to the first bevel gear, and the second transmission mechanism transmits the power of the second driving member to the second bevel gear.

Abstract: A linear-motion telescopic mechanism according to the present invention includes a plurality of block members (22) by which an arbitrary arm length is achieved in such a manner that the plurality of block member (22) are rigidly connected to each other so as to elongate a linear-motion telescopic joint (J3). On the other hand, by separating the plurality of block members (22) one by one from a rigid alignment of the plurality of block members (22), the linear-motion telescopic joint (J3) is contracted. The block members (22) unfixed from the rigid alignment are still serially connected but not in a rigid manner. That is, the block members (22) thus unfixed can be flexed in any directions, and therefore can be housed inside a support member (1) in a compact manner.

Abstract: The present invention discloses a cable-driven manipulator comprising an operating unit having a drive motor, and a pulley rotated by the drive motor. An upper arm is coupled, through a joint, to one side of the operating unit. A forearm coupled, through a joint, to the other side of the upper arm by the cable. A gripper of an end effector operably coupled to the forearm, a cable compensation device is installed between the upper arm and the forearm so as to maintain constant the length of the cable that transmits the power of the operating unit to the end effector during the pivoting of the forearm. It is thus possible to prevent the variation of tensile force due to the variation of the length of the cable for operating the end effector during the pivoting of the forearm or the unintended malfunction of the end effector.

Abstract: A robotic arm comprising a plurality of segments, each comprising articulated links, and means for causing each segment to bend so the arm can follow a serpentine path. A helical spring is provided coaxially with the arm to urge the links to an initial datum position, and to distribute the bending over the links of each segment.

Abstract: A cable guide re-orders a plurality of cables. A first guide plate has a plurality of first guide holes that receive a plurality of cables in a first order. A second guide plate has a plurality of second guide holes that receive the plurality of cables in a different second order. An intermediate guide plate is located between the first and second guide plates. The intermediate guide plate has a plurality of intermediate guide holes. Each of the intermediate guide holes receives one of the plurality of cables and causes a change of direction in the cable to facilitate the change from the first to the second order. The intermediate guide plate may further include cable passages to allow some cables to pass through without changing direction. There may be more than one intermediate guide plate. The cables may change from a generally linear to a generally circular arrangement.

Abstract: A system and method for controlling tendon-driven manipulators that provide a closed-loop control of joint torques or joint impedances without inducing dynamic coupling between joints. The method includes calculating tendon reference positions or motor commands by projecting a torque error into tendon position space using a single linear operation. The method calculates this torque error using sensed tendon tensions and a reference torque and internal tension. The method can be used to control joint impedance by calculating the reference torque based on a joint position error. The method limits minimum and maximum tendon tensions by projecting the torque error into the tendon tension space and then projecting ii back into joint space.

Abstract: A robotic hand with finger assemblies to better simulate human hand form factors and gestures. For each finger assembly, the robotic hand includes a finger drive assembly that is operable to selectively apply tension to four elongated and flexible tension elements (e.g., steel cable). Each of the finger assemblies includes a set of links or link members that are actuated or moved by the selective tensioning/movement of the tension elements by the drive assembly. The links are interconnected with pivotal joints such that they have three degrees-of-freedom, and the finger assembly includes a set of pulleys that are supported on the links and that are arranged to provide support and to guide the tension elements through the finger assembly. The tension elements preferably extend only partially about any one of the pulleys, whereby the finger assembly utilizes “n+1” actuation with non-helical wrapping of the tension elements.

Abstract: The present invention relates to a robot hand with a connection part that undergoes stretching deformation according to object shape and a method for controlling a robot hand; the key technical point pertains to a robot hand with a connection part that undergoes stretching deformation according to object shape, comprising: a variable connection device (100) that provides a contact face that enables pressing and contacting a moving target (10) and has a structure wherein a connection part (100a) in contact with said moving target (10) enables stretching deformation; a connection length controller (200) that interfaces with a drive part such as a motor (201) or pump to stretch and deform the connection part (100a) of said variable connection device so that the connection part (100a) of said variable connection device undergoes conversion between a closed-loop state wherein it is continuous with the surface of said moving target (10) or divided into a plurality of sections to be pressed and contacted, and an ope

Abstract: A belt tension adjustment apparatus and a robot arm having the belt tension adjustment apparatus are disclosed. The belt tension adjustment apparatus includes a tension measurement part for measuring tension of a belt running on an endless track, a tension adjustment part for pressing the belt in a direction inclined with respect to a surface of the belt to apply a pressing force to the belt, and a controller for controlling the tension adjustment part depending on the measured tension. The belt tension adjustment apparatus prevents variation of a running speed of the belt and maintains tension of the belt.

Abstract: A biomimetic mechanical joint for generating a variable torque between support members of a biomimetic robotic device, including a base support member, a rotary support member rotatably coupled to the base support member, and a variable-radius pulley operably coupled between the base support member and rotary support member. The variable-radius pulley comprises a sheave body having a variable radius and one or more tendon grooves formed in the circumferential outer surface. The mechanical joint further includes one or more flexible tendons and antagonistic actuator pairs, with each actuator pair being coupled to one or more tendons and configured to operate the tendon around the variable-radius pulley in either direction to create a variable torque between the base and rotary support members.

Abstract: The anthropomorphic force-reflective master arm is a light, anthropomorphic, back-drivable, six degree of freedom (DOF) master arm designed to control the motion of a remote slave device having arbitrary structure. Three of the link members are rotationally coupled to each other to form a handle, such that axes of rotation of each of the handle link members intersects at the user's hand position. The kinematics of the master arm is simplified to two independent sub-systems, which are the hand position and hand orientation.

Abstract: A transportation apparatus operable to linearly transport an object includes a first transmission unit provided in a first intermediate table and which is operable to transmit torque from one of a pair of first links to one of a pair of second links. The transmission unit includes a pair of pulleys supported by a pair of first intermediate shafts and fixed to the one of the first links and the one of the second links; and an upper belt and lower belt are partially wound around the pulley in opposite directions with each other and fixed to the pulleys so as to transmit the torque. One of the pulley is divided into an upper part fixed with the upper belt and a lower fixed with the lower belt in an axial direction of the first intermediate shafts.

Abstract: A robotic arm arrangement including an arm having control cables extending from the base of the arm, and coupling members for coupling the cables to actuators for linear actuation of the cables. The coupling members extend radially outwardly around the arm to enable quick release and replacement of the arm.

Abstract: Provided is a substrate transfer apparatus which can perform stable and highly accurate transfer without making a configuration complicated. A substrate transfer apparatus according to the present invention includes a multijoint arm whose one end is arranged on a base and the other end is connected to a hand for supporting a substrate, a linear guide for guiding a rectilinear movement of the hand, and a belt driving mechanism for moving the hand along a guide rail of the linear guide. The substrate transfer apparatus having such a configuration supports a load acting on the hand by the multijoint arm and ensures rectilinear transfer performance of the hand by the linear guide. Therefore, since a special mechanism for passing the substrate through a dead point is not required, the configuration is prevented from becoming complicated. Furthermore, since the load does not directly act on the linear guide, high transfer accuracy can be obtained.

Abstract: A power transmission mechanism and a robot arm using the same are described. The power transmission mechanism at least includes a first power source, a second power source, a plurality of steel ropes, a support arm component, a stopping component and a joint component. The stopping component is disposed in the support arm component and includes a first stopping unit and a second stopping unit that rotate coaxially. The first and second power sources and the joint component are disposed at two ends of the support arm component. The first and second power sources transmit power via the first stopping unit and the second stopping unit through the plurality of steel ropes to drive the joint component to perform a two-degree-of-freedom motion. The support arm component and the joint component can be applied in an upper arm and an elbow of a robot arm, thereby constituting a multi-degree-of-freedom robot arm.

Abstract: A manipulator, such as for use in medical procedures, is provided. The manipulator includes a body and a first actuator system connected to the body at a first attachment point and capable of moving the first attachment point with at least three degrees of freedom. A second actuator system is connected to the body at a second attachment point and capable of moving the second attachment point with at least three degrees of freedom. A third actuator system is integrated with the body and is capable of moving at least a portion of the body with at least one degree of freedom.

Abstract: A pipe handling apparatus has a boom pivotally movable between a first position and a second position, a riser assembly pivotally connected to the boom, an arm pivotally connected at one end to the first portion of the riser assembly and extending outwardly therefrom, a gripper affixed to an opposite end of the arm suitable for gripping a diameter of the pipe, a link pivotally connected to the riser assembly and pivotable so as to move relative to the movement of the boom between the first and second positions, and a brace having a one end pivotally connected to the boom and an opposite end pivotally connected to the arm between the ends of the arm. The riser assembly has a first portion extending outwardly at an obtuse angle with respect to the second portion.

Abstract: A workpiece conveying apparatus of a machine tool, capable of covering a workpiece moving mechanism based on a simple structure and thereby preventing the entire machine from increasing in size is provided. A frame member 8 is formed by a pipe body extending from a workpiece machining position A to the vicinity of a workpiece carry-in-and-out position B, and the workpiece moving mechanism 7 is structured that a belt 12 is wound around a driving pulley 10 and a driven pulley 11 to drive the driving pulley 10 to rotate by a driving motor 13 where the belt 12 is arranged in the accommodated state in the frame member 8.

Abstract: A transmission includes a first component, a second component, and first and second transmission elements. The first component has a drive member and a portion configured to be actuated to inhibit movement of the drive member. The first and second transmission elements are each coupled to the drive member and the second component and configured to cause movement of at least one of the first component and the second component in response to movement of the drive member. At least one of the first and second transmission elements includes a first plurality of transmission sub-elements.

Abstract: Disclosed are a robot joint driving apparatus and a robot having the same, capable of minimizing tension of a wire applied to a movable member by installing an idle pulley in a power transmission structure using a ball screw apparatus and the wire. The robot joint driving apparatus includes a reversible drive motor, a pair of movable members performing a linear movement according to rotation of the reversible drive motor, a wire connected to the movable members from both directions of the movable members, an idle pulley rotatably installed at one side of the wire, a joint part rotatably installed at an opposite side of the wire, and an adjustment unit to adjust tension of the wire.

Abstract: The invention relates to a tubular handling apparatus for moving tubulars between a substantially horizontal transfer station and a second transfer station. The apparatus comprises a base and a boom, rotatable with respect to the base between a lowered position and a raised position by boom rotation drive means in a boom rotation direction around a horizontal boom rotation axis. Furthermore, the apparatus comprises a gripper, rotatably attached to the boom and adapted for gripping the tubular, which gripper is rotatable about a gripper rotation axis by a gripper rotation drive means in a gripper rotation direction. According to the invention, the gripper rotation axis is parallel to and spaced from the horizontal boom rotation axis and in that the gripper rotation drive means provide a gripper rotation direction opposite to the boom rotation direction.

Abstract: A robot arm assembly includes a turret, a lower arm pivotable with respect to the turret, and an upper arm pivotable with respect to the lower arm.

Abstract: The anthropomorphic force-reflective master arm controls a remote robotic arm and includes a plurality of rotatably joined mechanical links extending from a base to provide up to six degrees of freedom. Three of the link members are rotatably coupled to each other to form a handle, so that axes of rotation of each of the handle link members intersect at a user's hand position. Cable and pulley assemblies for the link joints are connected to their corresponding backdrive motors, the backdrive motors being disposed on the base to provide efficient transmission of forces experienced by the remote machine to the master arm handle.

Abstract: In one embodiment, a robotic manipulator arm includes a robotic joint, a rotational position sensor, and a control system. The rotational position sensor is coupled to the main housing of the robotic joint. The control system is connected to the rotational position sensor. During normal rotational motion toward a commanded motor position of joint output, the control system determines that normal joint un-slipped motion is occurring with respect to the joint output in response to the motor input commands. Responsive to joint slip during commanded motor motion, the control system compares position data from the rotational position sensor to commanded motor position to generate an error value and, based on the error value, compensates for the joint slip.

Abstract: A method for estimating joint load at a joint of a segment. The method comprises the steps of receiving kinematic data, determining a modified acceleration using at least the kinematic data, estimating a joint load using at least the modified acceleration; and determining simulated kinematic data for the segment using at least the joint load. The present disclosure thus addresses the problems with conventional inverse dynamics analysis by providing a forward dynamics solution for estimation of joint loads that is stable, guaranteed to converge, computationally efficient, and does not require acceleration computations. According to one embodiment, a joint load is estimated using an approach of closed form dynamics.

Abstract: A transfer apparatus includes a stationary base, a swivel rotatable around a vertical rotation axis, a linear movement mechanism supported by the swivel, a hand supported by the linear movement mechanism for transferring a work along a horizontal path, a driving power source in the stationary base, and a transmission shaft arranged along the rotation axis for transmitting driving force from the driving power source to the linear movement mechanism. The linear movement mechanism includes a driving mechanism and a guide rail for movably supporting the hand. The driving mechanism has a plurality of pulleys, including a driving pulley supported rotatably around a horizontal axis, and an output belt wound around the plurality of pulleys for reciprocal movement within a predetermined section extending parallel to the movement path. The hand is connected to the output belt via a connection member.

Abstract: A robotic joint configured as a 3-axis joint configured with a shoulder or other human joint form factor. The joint includes a first link made up of a block attaching to a torso and a stationary electric actuator assembly mounted to the block. A second link is connected to the first link to rotate about a first axis and be driven by the actuator assembly. A third link is attached to the second link to rotate about a second axis orthogonal to the first axis when the third link is driven by the actuator assembly. A fourth link is connected to the third link to rotate about a third axis orthogonal to the second axis when the fourth link is driven by the actuator assembly. The actuator assembly includes three electric motors with threaded drive capstans driving pulleys in the links while being spaced apart from the rotating links.

Abstract: A method for estimating joint load at a joint of a segment. The method comprises the steps of receiving kinematic data, determining a modified acceleration using at least the kinematic data, estimating a joint load using at least the modified acceleration; and determining simulated kinematic data for the segment using at least the joint load. The method addresses the problems with conventional inverse dynamics analysis by providing a forward dynamics solution for estimation of joint loads that is stable, guaranteed to converge, computationally efficient, and does not require acceleration computations. According to one embodiment, a joint load is estimated recursively.

Abstract: A method for providing independent static and dynamic models in a prediction, control and optimization environment utilizes an independent static model (20) and an independent dynamic model (22). The static model (20) is a rigorous predictive model that is trained over a wide range of data, whereas the dynamic model (22) is trained over a narrow range of data. The gain K of the static model (20) is utilized to scale the gain k of the dynamic model (22). The forced dynamic portion of the model (22) referred to as the bi variables are scaled by the ratio of the gains K and k. The bi have a direct effect on the gain of a dynamic model (22). This is facilitated by a coefficient modification block (40). Thereafter, the difference between the new value input to the static model (20) and the prior steady-state value is utilized as an input to the dynamic model (22). The predicted dynamic output is then summed with the previous steady-state value to provide a predicted value Y.