Honeywell International Inc.

Vmware, Inc.

Honeywell Safety Products Usa, Inc.

Vocollect, Inc.

Adster Technologies Pvt. Ltd.

Ranganathan Srinivasan

Sriram Hallihole

Naren Lal

Paul C Wacker

Ondrej Holub

J Ward MacArthur

Purnaprajna Raghavendra Mangsuli

Madhukar Madhavamurthy Gundappa

Rajni Jain

Sanjay Kantilal Dave

Mandar Subhash Vartak

Vipul Chaudhary

Gobinath Pandurangan

Ward MacArthur

Ashish Kumar

Samdeep Nayak

Petr Endel

Andrew John Trenchard

Ravi Kumar Ramamurthy

Sandeep L Hegde

Sujit Gaikwad

Sachi Dash

Duff Halart Gold

Shyam Kasi Venkatram

Lucy Ning Liu

Krzysztof K Pierscieniak

Kaushik Hazra

Murugesh Palanisamy

Christopher Chapman

Raghunathan Rengaswamy

Rekula Dinesh

Girish Vishwanath Chirravoori

Rajiv Kumaar

Rajeev Naduthota

Ketan Chandak

Shivansh Pandey

S Chandrakanth Vittal

Avijit Das

Sreesathya Sathyabhama Sreekantan

Roshan Yohannan

Sanjay Venugopal

Navaneeth Vengallur

Venkata K P Reddy Vurubindi

A system and a method for optimizing advertisement yield and reducing latency. The system receives an ad request and initiates parallel bid requests to a mediation platform, header bidding partners, and ad networks. The system then determines the highest bid from header bidding partners in real-time while simultaneously determining a prioritized list of demand sources from the mediation platform. The highest bid and its associated ad object are cached and submitted to the mediation platform in a single hop. The mediation platform mediates this bid against other sources. The system selects the ad object, for display on a client device, either from the header bidding partner's ad object if the mediation platform doesn't confirm a higher bid, or the mediation platform's ad object if it does. The system utilizes caching, parallel processing, and backfill strategies to reduce latency and optimize ad selection. It can also dynamically adjust backfill ad network positioning based on real-time data.

System and a method for optimizing advertisement yield and reducing advertisement latency

A voice controlled apparatus for performing a workflow operation is described. The voice controlled apparatus can include a microphone, a speaker, and a processor. In some examples, the voice controlled apparatus can generate, via the speaker, a voice prompt associated with a task of a workflow and identify, via the microphone, a voice response received from a worker. In this regard, the voice prompt and the voice response can be a part of a voice dialogue. Further, the processor of the voice controlled apparatus can identify a performance status associated with the execution of the task, before providing a next voice prompt subsequent to the voice prompt. In this aspect, the performance status can be identified based on analyzing the voice dialogue using a machine learning model. Furthermore, the voice controlled apparatus can generate a message including a suggestion to improve the performance status of the task.

Systems, methods, and apparatuses for improving performance of executing a workflow operation

Methods and apparatus are disclosed that deploy a hybrid workload domain. An example apparatus includes a resource discoverer to determine whether a first bare metal server is available and a resource allocator to allocate virtual servers for a virtual server pool based on an availability of the virtual servers and, when the first bare metal server is available, allocate the first bare metal server for a bare metal server pool. The example apparatus further includes a hybrid workload domain generator to generate, for display in a user interface, a combination of the virtual server pool and the bare metal server pool and generate a hybrid workload domain used to run a user application based on a user selection in a user interface, the hybrid workload domain including virtual servers from the virtual server pool and bare metal servers from the bare metal server pool.

Methods and apparatus to deploy a hybrid workload domain

In one example, a computer implemented method may include retrieving resource definition data corresponding to an endpoint. The resource definition data includes resource type information. Further, an API response may be obtained from the endpoint by querying the endpoint using an API call. Furthermore, the API response may be parsed and a resource model corresponding to the resource definition data may be populated using the parsed API response. The resource model may include resource information and associated metric information correspond to a resource type in the resource type information. Further, a resource and/or metric data associated with the resource may be determined using the populated resource model. The resource may be associated with an application being executed in the endpoint.

Resource determination based on resource definition data

A computer-implemented method for using a standalone tool for certificate management is provided. The standalone tool for certificate management is provided between a plurality of computing nodes and a management node. The standalone tool determines a certificate status for each of the plurality of computing nodes in the computing system. The standalone tool also determines any certificate operations for each of the plurality of computing nodes in the computing system. The certificate status and any of the certificate operations are presented in a consolidated view.

Standalone tool for certificate management

A personal protection system can comprise a radio frequency identification (RFID) tag coupled to a personal protective equipment, a barometric sensor coupled to the RFID tag, and a computing device communicatively coupled to the RFID tag and the barometric sensor. The computing device can comprise a processing unit that can be configured to access radio frequency (RF) data received from the RFID tag and receive, from the barometric sensor, barometric data determined by the barometric sensor. Further, the processing unit can be configured to determine a positioning state of the personal protection equipment. The positioning state can indicate whether the personal protection equipment is being worn correctly or incorrectly by the user.

Systems, methods, and apparatuses, for monitoring personal protection equipment compliance

An example apparatus to configure a workload domain for security compliance includes a configuration normalizer to generate normalized workload domain configuration settings by normalizing workload domain configuration settings of a deployed workload domain based on a format of compliance configuration settings; a drift comparator to compare the normalized workload domain configuration settings with the compliance configuration settings before deploying an application in the workload domain; a post start-up controller to generate updated workload domain configuration settings by modifying ones of the workload domain configuration settings, the modifying of the ones of the workload domain configuration settings being based on the comparison of the normalized workload domain configuration settings with the compliance configuration settings; and a compliance verifier to determine whether the updated workload domain configuration settings satisfy the compliance configuration settings.

Methods and apparatus to deploy security-compliant workload domains

Heating, ventilation, and air conditioning (HVAC) controllers are described herein. One method includes receiving an approximate relationship between each of a number of controlled and manipulated variables of an HVAC system, designating one of the number of controlled variables as a primary controlled variable, determining operating parameters for each of the number of manipulated variables that maintain the primary controlled variable based, at least in part, on the approximate relationship between the primary controlled variable and each respective manipulated variable, and determining operating parameters for each of the number of manipulated variables that maintain each of the other controlled variables based, at least in part, on the approximate relationship between each respective other controlled variable and each respective manipulated variable and the determined operating parameters for each of the number of manipulated variables that maintain the primary controlled variable.

Heating, ventilation, and air conditioning system controller

Methods and apparatus are disclosed that deploy a hybrid workload domain. An example apparatus includes a resource discoverer to determine whether a first bare metal server is available and a resource allocator to allocate virtual servers for a virtual server pool based on an availability of the virtual servers and, when the first bare metal server is available, allocate the first bare metal server for a bare metal server pool. The example apparatus further includes a hybrid workload domain generator to generate, for display in a user interface, a combination of die virtual server pool and the bare metal server pool and generate a hybrid workload domain used to run a user application based on a user selection in a user interface, the hybrid workload domain including virtual servers from the virtual server pool and bare metal servers from the bare metal server pool.

A method implemented using a server includes receiving, from a first application, a tag associated with an equipment, the tag indicating an event. The method also includes retrieving, from at least a second application, at least one of an action or context information linked to the event based on the tag. The method further includes transmitting the tag indicating the event and the action linked to event. In addition, the method includes displaying, on a plant graphic, a location of the event using the tag and the action linked to the event.

Method and system for co-operative intelligent HMIs for effective process operations

Heating, ventilation, and air conditioning (HVAC) system controllers are described herein. One HVAC controller includes a user interface configured to receive an indication of whether there is a positive or negative relationship between each of a number of controlled variables of an HVAC system and each of a number of manipulated variables of the HVAC system, a memory, and a processor configured to execute executable instructions stored in the memory to determine operating parameters for each of the number of manipulated variables, wherein the determined operating parameters are determined based, at least in part, on whether there is a positive or negative relationship between each respective controlled variable and each respective manipulated variable, and the determined operating parameters are not based on system dynamics and disturbances associated with the HVAC system. The determined operating parameters may be optimal with respect to the current condition of the HVAC system.

A controller and loop performance monitoring system is coupled to a controller, detects loop performance degradation in time, and diagnoses a cause of the loop performance degradation. If the cause of loop performance degradation is poor controller tuning, a re-tuning mechanism is triggered. If the cause of loop performance degradation is external to the controller (a disturbance acting on the loop, hardware malfunction etc.), an action defined in control strategy is taken, or the user is informed via alarm, user interface, or upper layer software that collects the performance measures. The monitoring itself is designed to be recursive and with low memory demands, so it can be implemented directly in the controller, without need for data transfer and storage. The monitoring is modular, consisting of oscillation detection and diagnosis part, performance indices part, internal logic part, and triggering part, easily extensible by other performance indices or parts (e.g. for overshoot monitoring). The oscillation detection and diagnosis part includes controller output oscillation monitoring, the performance indices part includes predictability index and offset index. The outputs of the controller and loop performance monitoring are overall loop performance together with loop diagnosis information, and overall controller performance together with controller diagnosis. The outputs of the controller and loop performance monitoring are used as parts of controller and loop performance monitoring user interface.

Controller and loop performance monitoring in a heating, ventilating, and air conditioning system

A method includes, using at least one processing device, obtaining multiple diagnostic indicators associated with at least a portion of an industrial process system and combining the diagnostic indicators to form a generalized indicator. Each diagnostic indicator has a value, and the generalized indicator is associated with a position on a continuous scale. The continuous scale could include a color gradient, and the method could include displaying the generalized indicator along the color gradient with a color based on its position. Multiple generalized indicators associated with multiple portions of the process system could be displayed within a torus or circle, and different portions of the torus or circle can be associated with different portions of the process system. Different concentric tori or circles could be associated with different periods of time, and at least one concentric torus or circle could identify a predicted behavior of the process system.

Apparatus and method for providing a generalized continuous performance indicator

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Bengaluru, India

Ranganathan Srinivasan