Uop Lcc

Cybersecure Ips, LLC

Other

Stephen W Sohn

Mark G Riley

Scott Rye

Bobby Nakanelua

Deng-Yang Jan

Santi Kulprathipanja

Bryan K Glover

Jeffrey L Pieper

Debarshi Majumder

Jaime G Moscoso

Andrea G Bozzano

Dean E Rende

Douglas George Stewart

Robert J L Noe

Charles P Luebke

Steven P Lankton

James W Priegnitz

Hosheng Tu

Priyesh Jayendrakumar Jani

Cynthia K Zimmerman

Peter M Bernard

Bipin Virpal Vora

R Joe Lawson

Jayant Kumar Gorawara

Soumendra Mohan Banerjee

Richard E Marinangeli

Lance Awender Baird

Wei Pan

Michael R Smith

Thomas R Fritsch

Zheng Barton Wang

Phuong Thi Mai Do

Grace Chao

Braden E Smith

Amanda Hickman

Manoj N Kumar

James E Rekoske

Gregory A Funk

Lynn H Rice

Raelynn M Miller

Hari S Bajpai

Joao Jorge Da Silva Ferreira Alves

Shuguang Zhang

Cora Wang Ploentham

Nikunj Manubhai Patel

Michael A Moore

Amit Sharma

Nishesh Garg

Sarbotrika Sengupta

Timothy D Foley

Brian J Schiavone

Tomoaki Mori

Takumi Terui

Tsukasa Tamai

Zheng Wang

Jayant K Gorawara

In some embodiments, cable installation within datacenters may be facilitated without signals being sent/received from outside the datacenters. In some embodiments, in response to scanning a cable code associated with a fiber optic cable (or other cable), path information for running the cable may be obtained from a datacenter device within a datacenter, and an environment of a user of a wearable device may be monitored for a code corresponding to a path identifier associated with a datacenter path. In response to (i) the monitoring detecting a first code corresponding to the path identifier and (ii) a first location identifier extracted from the first code failing to match a next location identifier associated with a next location, a display overlaid over a map related to the datacenter may be generated to include instructions for moving from a first location associated with the first location identifier to the next location.

Systems and methods for facilitating cable installation

Methods and systems are described herein for facilitating installation of cables within datacenters without signals being sent/received from outside the datacenter buildings. In particular, the mechanism for facilitating installation of cables within datacenters may include scanning cable codes (e.g., QR codes, bar codes, near field communication (NFC) codes, radio frequency identification (RFID) codes, etc.) and retrieving path information for scanned cable codes. The mechanism then proceeds to track the installation process by scanning codes located throughout a datacenter to verify that the cable installation is proceeding correctly. In instances where a scanned code does not match a code that is expected, based on an order within the path information, an error message is generated indicating that there may be a problem with the cable installation.

Facilitating installation of cables within datacenters

In certain embodiments, cable routing may be facilitated. For example, a selection of a first rack and a second rack within an infrastructure may be received. A primary cable route between the first rack and the second rack may be generated, the primary cable route having a primary length. Based on diversity requirements of the infrastructure, secondary cable routes between the first rack and the second rack may be generated, the secondary cable routes having secondary lengths. First and second cable patching rules for patching the first and second racks, respectively, may be retrieved. Based on the first and second cable patching rules, a first and second patching scheme may be determined for patching the first and second racks, respectively. In some embodiments, the primary length, the secondary lengths, the first patching scheme, and the second patching scheme may be transmitted to a user device.

Intelligent cable routing between racks to facilitate cable installation

In certain embodiments, a selection of a first point and a second point within an infrastructure may be obtained via a user interface. A plurality of pathways, including a plurality of cable trays, between the first point and the second point may be determined. A first set of cable trays, having weights that do not exceed weight thresholds, may be identified. Images of the first set of cable trays may be obtained from a plurality of image sensors within the infrastructure. Fullness levels of the first set of cable trays may be determined based on the images. A second set of cable trays, having fullness levels that do not exceed fullness thresholds, may be identified from the first set of cable trays. One or more recommended pathways between the first point and the second point may be determined based on the identified second set of cable trays.

Method and system for determining optimal pathways for installing cables in an infrastructure

In certain embodiments, cable installation may be facilitated. For example, device templates for racks and associated objects within an infrastructure may be retrieved. Rack data and object data may be received from sensors within the infrastructure. Using the device templates and based on the rack data and the object data, rack data structures and object data structures may be generated. Links between the rack data structures and the object data structures may be generated based on connections between the racks and the associated objects. The connections may be monitored over time and the links may be updated based on changes to the connections. Utilization metrics may be generated for the rack data structures and the object data structures based on the updated links. In some embodiments, cable installation instructions based on the rack data structures, the object data structures, and the utilization metrics may be transmitted to a cable installation system.

Data structure and utilization metric generation for facilitating cable installation

In certain embodiments, cable patching may be facilitated. For example, identifiers corresponding to available ports for devices or objects within racks and required ports for patching devices into the racks may be determined. Cable patching schemes for the racks may be retrieved from sensors. The available ports, the required ports, and the cable patching schemes may be input into a prediction model, the prediction model being configured based on the inputs. New identifiers corresponding to new available ports for a new rack and new required ports for patching new devices into the new rack may be determined. A predicted cable patching scheme for patching the new rack may be obtained from the prediction model. In some embodiments, the predicted cable patching scheme may be transmitted to a user device.

Intelligent cable patching of racks to facilitate cable installation

A process increases the concentration of normal paraffins in a feed stream comprising separating a naphtha feed stream into a normal paraffin rich stream and a non-normal paraffin rich stream. A naphtha feed stream may be separated into a normal paraffin stream and a non-normal paraffin stream. An isomerization feed stream may be taken from the non-normal paraffin stream and isomerized over an isomerization catalyst to convert non-normal paraffins to normal paraffins and produce an isomerization effluent stream. The isomerization effluent stream may be separated into a propane stream and a C4+ hydrocarbon stream optionally in a single column. The C4+ hydrocarbon stream may be recycled to the step of separating a naphtha feed stream.

Process for increasing the concentration of normal hydrocarbons in a light naphtha stream

In some embodiments, a cable assembly may include an outer jacket, a printer circuit board including light emitting diodes, and a cable configured to transmit information. In some embodiments, the outer jacket may include a channel opening and the printed circuit board may be configured to be positioned within the channel opening and between the cable and the outer jacket. In some embodiments, the cable assembly may include an inner jacket, an outer jacket, a printed circuit board including light emitting diodes, and a cable configured to transmit information. The inner jacket may include a channel opening, and the printer circuit board may be configured to be positioned within the channel opening and between the inner jacket and the outer jacket.

Cable assembly disturbance detection method

In certain embodiments, real-time playback modification for activity event playback may be facilitated. In some embodiments, an event list portion and an event playback portion may be provided on a user interface, where the event playback portion is configured to present a playback of events on a location map in accordance with event detection times and a set of event layers for the event playback. While the event playback is occurring, a user selection of events may be obtained via the event list portion of the user interface. While the event playback is occurring, a set of layers for the event playback may be modified based on the user selection. In some embodiments, based on the modification to the set of layers, event layers may be overlaid onto the location map of the event playback portion of the user interface.

Real-time playback modification for activity event playback

In certain embodiments, continuous adjustment of a normal state of a sensor and reducing false positive floor sensor alerts may be facilitated. In some embodiments, wavelength readings may be continuously obtained from a floor sensor. A normal state of the floor sensor may be continuously adjusted based on wavelength readings that fail to satisfy upper and lower wavelength thresholds of the continuously adjusted normal state. An event may be detected when one or more wavelength readings from the floor sensor satisfy the upper or lower wavelength thresholds of the continuously adjusted normal state. A number of wavelength readings that satisfy the upper or lower wavelength thresholds may be determined. A suspicious activity alert may be generated when the number of wavelength readings satisfies a predetermined count threshold.

Method and system for generating sensor alerts based on continuous adjustment of a normal state of a sensor

A catalyst composition and its use as a dehydrogenation catalyst to increase normal olefin selectivity and reduce undesirable aromatic selectivity. The reduction in aromatic production allows for the elimination of a unit to remove aromatic compounds. The catalyst has a layered composition comprising an inner core, an outer layer bonded to the inner core, the outer layer comprising one or more transition alumina with at least two diffraction angle peaks between 32.0&#xb0; and 70.0&#xb0; 2&#x3b8;, wherein a first diffraction angle peak in that range is at 32.7&#xb1;0.4&#xb0; 2&#x3b8;, a second diffraction angle peak is at 50.8&#xb1;0.4&#xb0; 2&#x3b8;, and having a thickness of less than about 100 microns and having uniformly dispersed thereon said platinum catalyst and at least one promoter metal and having a concentration of the platinum catalyst of from about 0.00006 to 0.0005 gram of the platinum group metal on an elemental basis per meter square surface area of the outer layer.

Dehydrogenation catalyst with minimized aromatic production

A process is provided for producing linear alkylbenzenes with an improved yield from paraffin feed due to the use of a new catalyst that has a reduced selectivity to produce undesired aromatic compounds. In some embodiments, it is now possible to operate the process without including a unit to remove such aromatic compounds which allows for an operator of a plant to make modifications to the process to increase product yield.

Paraffin utilization of linear alkyl benzene production

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Des Plaines, IL, United States of America

Stephen W Sohn