Columbia University

Schneider Automation Gmbh

James G McLean

Fred Allison Bower, Iii

Jeffery J Van Heuklon

William Anthony White, Iii

Lawrence W Hill

Christine P Hendon

William D Sparks

Soo Young Park

Rajinder Singh-moon

Richard Ha

Diana Mojahed

Hanina Hibshoosh

Jean Francis Rolland

Jean-Francois Rolland

An exemplary catheter can be provided, which can include, for example a source fiber(s) configured to (i) receive a near infrared spectroscopic (NIRS) radiation, and (ii) provide the NIRS radiation to a portion(s) of a sample(s), a detection fiber(s) configured to receive a return radiation from the sample(s) that can be based on the NIRS radiation that was provided to the portion(s) of the sample(s), and an ablation electrode(s) configured to ablate the sample(s) based on the return radiation. The source fiber(s), the detection fiber(s), and the ablation electrode(s) can be integrated into the single sheath. The ablation electrode(s) can be a radiofrequency ablation electrode.

System, method, computer-accessible and apparatus for providing near-infrared spectroscopy for anatomical mapping of the epicardium

A computer program product includes program instructions configured for execution by a processor to perform various operations. The operations include accessing a system resource database including, for each of a plurality of disaggregated computing hardware resources within a composable computing system, hardware characteristics that describe the disaggregated computing hardware resource, wherein the hardware characteristics include a physical location of the disaggregated computing hardware resource. The operations further include identifying a first workload request that requests performance of a first workload, identifying a physical location requirement for the first workload, selecting a subset of the disaggregated computing hardware resources to be included in a first computing subsystem for performance of the first workload in compliance with the physical location requirement for the first workload, provisioning of the first computing subsystem, and assigning the first computing subsystem to perform the first workload.

Provisioning a computing subsystem with disaggregated computing hardware resources selected in compliance with a physical location requirement of a workload

A computer program product may cause a processor to perform various operations in a composable computing system. The operations may include accessing a system resource database including, for each of a plurality of disaggregated computing hardware resources within the composable computing system, data corresponding to hardware characteristics for the hardware resource and a power domain characteristic of a power domain that supplies power to the hardware resource. The operations may further include identifying a workload request that requests performance of a workload and identifying a power domain requirement for the workload. Still further, the operations may include selecting a subset of the disaggregated computing hardware resources to be included in a first computing subsystem, wherein each hardware resource selected to be included in the first computing subsystem complies with the identified power domain requirement for the workload, provisioning of the first computing subsystem, and assigning the first computing subsystem to perform the workload.

Provisioning a computing subsystem including disaggregated hardware resources that comply with a power domain requirement for a workload

An exemplary system for generating an image(s) of a sample(s) can include, for example, an imaging arrangement that can include a superluminescent diode (SLD) configured to generate a radiation(s) to be provided to the sample(s), and a spectrometer configured to (i) sample an A-line sampling rate of at least about 200 kHz, (ii) receive a resultant radiation from the sample(s) based on the sampling rate, and (iii) generate information based on the resultant radiation, and a computer hardware arrangement configured to generate the image(s) of the sample(s) based on the information received from the spectrometer. The imaging arrangement can be an interferometric imaging arrangement, which can be an optical coherence tomography imaging (OCT) arrangement. The computer hardware arrangement can be further configured to facilitate a plurality of b-scan acquisitions of the sample(s) and facilitate the b-scan acquisitions in order to generate the image(s).

System, method, computer-accessible medium, and apparatus facilitating ultra-high resolution optical coherence tomography for automated detection of diseases

USB flash drive

A CANOpen network including a bus master and an I/O module is disclosed. Each is communicatively coupled to a common bus. The I/O module is subject to a state change. The bus master collects state information from the I/O module by determining if the bus master is prepared to receive further data from the bus and sending a trigger signal from the bus master to the I/O module if the bus master is prepared to receive further data from the bus. The I/O modules sends a state signal to the bus master in response to the trigger signal.

Triggered communication network for CANOpen networks

A CANOpen network including a bus master and an I/O module are disclosed. Each are communicatively coupled to a common bus. The I/O module is subject to a state change. The bus master collects state information from the I/O module by sending a state signal from the I/O module to the bus master in response to a state change of the I/O module, sending a trigger signal from the bus master to the I/O module, and sending a state signal from the I/O module to the bus master in response to the trigger signal.

Growing community of inventors

Raleigh, NC, United States of America

James G McLean