Abstract: A resistance training machine, a method of providing custom workouts, and a method of providing feedback on user form and user balance are disclosed. Provided herein are Methods and Systems For Controlling Resistance Training Machine that provides varying force and velocity levels for isokinetic and isotonic exercises, respectively, for a user.

Abstract: Provided herein are Methods and Systems For a Multi-Motor module system for a Resistance Training Machine, comprising a training program module and a programming framework; wherein a motor system module sets a mode of a drive system and motor hardware is operably coupled to an actuator to shift the drive system from a lower gear to a higher gear.

Abstract: Provided herein are Actuator Geared Feedback Systems for a Resistance Training Machines and Methods of Use.

Abstract: Provided herein are Methods and Systems For a Multi-Motor module system for a Resistance Training Machine.

Abstract: A resistance training machine, a method of providing custom workouts, and a method of providing feedback on user form and user balance are disclosed. The resistance training machine includes a left and right motor, a left and right pulley system, a left and right cable, a machine controller, and a human machine interface. Advantageously, the resistance training machine can provide isotonic exercises, isokinetic exercises, and feedback on form and balance for a user. The first method includes a user calibrating one or more exercises, selecting an exercise, selecting an exercise mode, and performing the exercise. For each exercise, a motor may ramp up to and ramp down from a selected velocity or force level.

Abstract: Provided herein are Closed Loop Rope System for a Resistance Training Machines, Systems, and Methods of Use.

Abstract: Provided herein are Geared Systems for a Resistance Training Machines, Systems, and Methods of Use. The geared system operates with an actuator operably coupled to a motor system, wherein the motor system is operatable to provide resistance in a resistance training machine.

Abstract: A resistance training machine, a method of providing custom workouts, and a method of providing feedback on user form and user balance are disclosed. The resistance training machine includes a left and right motor, a left and right pulley system, a left and right cable, a machine controller, and an HMI. Advantageously, the resistance training machine can provide isotonic exercises, isokinetic exercises, and feedback on form and balance for a user. The first method includes a user calibrating one or more exercises, selecting an exercise, selecting an exercise mode, and performing the exercise. For each exercise, a motor may ramp up to and ramp down from a selected velocity or force level. The second method includes a user performing an exercise, a machine controller receiving position data, torque data, and force data throughout the exercise, the machine controller generating user feedback, and an HMI displaying the feedback to the user.

Abstract: Provided herein are Methods and Systems For Controlling Resistance Training Machine that provides varying force and velocity levels for isokinetic and isotonic exercises, respectively, for a user.

Abstract: A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.

Abstract: Autonomously operating analog to digital converters are formed into a two dimensional array. The array may incorporate digital signal processing functionality. Such an array is particularly well-suited for operation as a readout integrated circuit and in combination with a sensor array, forms a digital focal plane array.

Abstract: A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.

Abstract: A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.

Abstract: Autonomously operating analog to digital converters are formed into a two dimensional array. The array may incorporate digital signal processing functionality. Such an array is particularly well-suited for operation as a readout integrated circuit and in combination with a sensor array, forms a digital focal plane array.

Abstract: Autonomously operating analog to digital converters are formed into a two dimensional array. The array may incorporate digital signal processing functionality. Such an array is particularly well-suited for operation as a readout integrated circuit and in combination with a sensor array, forms a digital focal plane array.

Abstract: Digital focal plane arrays (DFPAs) with multiple counters per unit cell can be used to convert analog signals to digital data and to filter the digital data. Exemplary DFPAs include two-dimensional arrays of unit cells, where each unit cell is coupled to a corresponding photodetector in a photodetector array. Each unit cell converts photocurrent from its photodetector to a digital pulse train that is coupled to multiple counters in the unit cell. Each counter in each unit cell can be independently controlled to filter the pulse train by counting up or down and/or by transferring data as desired. For example, a unit cell may perform in-phase/quadrature filtering of homodyne- or heterodyne-detected photocurrent with two counters: a first counter toggled between increment and decrement modes with an in-phase signal and a second counter toggled between increment and decrement modes with a quadrature signal.

Abstract: Autonomously operating analog to digital converters are formed into a two dimensional array. The array may incorporate digital signal processing functionality. Such an array is particularly well-suited for operation as a readout integrated circuit and in combination with a sensor array, forms a digital focal plane array.

Abstract: A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.

Abstract: A digital focal plane array includes an all-digital readout integrated circuit in combination with a detector array. The readout circuit includes unit cell electronics, orthogonal transfer structures, and data handling structures. The unit cell electronics include an analog to digital converter. Orthogonal transfer structures enable the orthogonal transfer of data among the unit cells. Data handling structures may be configured to operate the digital focal plane array as a data encryptor/decipherer. Data encrypted and deciphered by the digital focal plane array need not be image data.

Abstract: Autonomously operating analog to digital converters are formed into a two dimensional array. The array may incorporate digital signal processing functionality. Such an array is particularly well-suited for operation as a readout integrated circuit and in combination with a sensor array, forms a digital focal plane array.