Abstract: Emotional loneliness is referred as the absence of an attachment figure in one’s life and someone to turn to. The existing methods use installation of sensors for tracking the movement, behaviour and activity of the person, but most of the efforts are obtrusive in nature. A non-obtrusive method and system for detection of emotional loneliness of a person have been provided. The disclosure is utilizing multiple varied techniques to understand the emotional loneliness. The multiple techniques comprise room change movement anomalies, living room stay anomalies, correlating the living room stay with the bedroom stay and outdoor movement anomalies. The methodology also ensures reduced variance and false positives, as emotional loneliness is finally determined based on more than two positives of above methods. The detection of person’s movement is done using a featured engineered dataset based on collection of raw time series data collected from a plurality of motion sensors.

Abstract: Nocturia has been defined as the need for an individual to wake up one or more times during the night to void. Further, Nocturia detection also requires analysis of sleeping pattern of the person. In such cases a lot of assumptions are made when the person is not in bedroom during nights. A method and system for detection and validation of Nocturia in the person has been provided. The system is utilizing a statistical based analysis, a rule based analysis, a machine learning based analysis and analysis of sleeping pattern of the person to detect and validate Nocturia. The system ensures that the person is not disturbed in his/her daily activities. Further, the processes deployed in the system are completely un-supervisory in nature meaning it does not have the dependency of needing to have trained machine learning dataset.

Abstract: Elderly people suffer from health issues, and timely detection can save lives. State of the art techniques either make certain assumptions or require clinical data in order to perform the frailty detection, which affects the quality as well as cause inconvenience to the users. The disclosure herein generally relates to patient monitoring and, more particularly, to frailty detection using pedometer sensor data, PIR sensor data, and door sensor data. The system determines activity levels of the user being monitored, based on data from the pedometer sensors, PIR sensors, and door sensors, and based on the determined activity levels, further determines whether the user has frailty or not.

Abstract: Conventionally, activity detection has been through one mode i.e., smart watch. Though it works in reasonable cases, there are chances of false positives considerably. Other approaches include surveillance which limits itself to object detection. Embodiments of present disclosure provide systems and methods for detecting activities performed by user from data captured from multiple sensors. A first input (FI) comprising accelerometer data, heart rate and gyroscope data and second input (SI) comprising video data are obtained. Features are extracted from FI and pre-processed for a first activity (FA) detection using activity prediction model. Frames from SI are processed for creating bounding box of user and resized thereof to extract pose coordinates vector. Distance between vector of pose coordinates and training vectors of pose coordinates stored in the system is computed and a second activity (SA) is detected accordingly. Both the FA and SA are validated for determining true and/or false positive.

Abstract: A flow control information routing system includes a receiver node device coupled to a sender node device by intermediate node devices that receive data traffic directed downstream, transmit the data traffic downstream, and provide flow control information upstream that is based on the data traffic transmitted downstream. The sender node device may perform a first layer 3 routing decision to direct a traffic flow to the receiver node device along a first traffic flow path that includes first intermediate node device(s). The sender node device may then receive flow control information provided by the first intermediate node device(s) and, in response, perform a second layer 3 routing decision using the flow control information in order to direct the traffic flow to the receiver node device along a second traffic flow path that includes second intermediate node device(s) and that does not include the first intermediate node device(s).

Abstract: A system and method for forwarding network traffic includes receiving a first flow of network traffic at an ingress port on a switch, collecting flow control metrics for a plurality of egress ports assigned to a link aggregation group of the switch, selecting a first egress port from the plurality of egress ports using a hashing strategy based on at least information associated with the flow control metrics, assigning the first flow to the first egress port, directing the first flow to the first egress port, and transmitting network traffic associated with the first flow using the first egress port.

Abstract: An interface identification system includes an IHS enclosure including a plurality of IHS slots and a plurality of input/output (I/O) switching module slots. A connection plane provides interconnects between the plurality of IHS slots and the plurality of I/O switching module slots. An I/O switching module includes a plurality of interfaces. The I/O switching module may be coupled to a first I/O switching module slot and, in response, retrieve first I/O switching module slot information about the first I/O switching module slot, retrieve IHS information about IHSs located in the plurality of IHS slots that are interconnected with the first I/O switching module slot through the connection plane, and use the first I/O switching module slot information and the IHS information to identify each of the plurality of interfaces on the I/O switching module that is coupled to an IHS by that IHS and the first I/O switching module slot.

Abstract: A flow control information routing system includes a receiver node device coupled to a sender node device by intermediate node devices that receive data traffic directed downstream, transmit the data traffic downstream, and provide flow control information upstream that is based on the data traffic transmitted downstream. The sender node device may perform a first layer 3 routing decision to direct a traffic flow to the receiver node device along a first traffic flow path that includes first intermediate node device(s). The sender node device may then receive flow control information provided by the first intermediate node device(s) and, in response, perform a second layer 3 routing decision using the flow control information in order to direct the traffic flow to the receiver node device along a second traffic flow path that includes second intermediate node device(s) and that does not include the first intermediate node device(s).

Abstract: An interface identification system includes an IHS enclosure including a plurality of IHS slots and a plurality of input/output (I/O) switching module slots. A connection plane provides interconnects between the plurality of IHS slots and the plurality of I/O switching module slots. An I/O switching module includes a plurality of interfaces. The I/O switching module may be coupled to a first I/O switching module slot and, in response, retrieve first I/O switching module slot information about the first I/O switching module slot, retrieve IHS information about IHSs located in the plurality of IHS slots that are interconnected with the first I/O switching module slot through the connection plane, and use the first I/O switching module slot information and the IHS information to identify each of the plurality of interfaces on the I/O switching module that is coupled to an IHS by that IHS and the first I/O switching module slot.

Abstract: An interface identification system includes an IHS enclosure including a plurality of IHS slots and a plurality of input/output (I/O) switching module slots. A connection plane provides interconnects between the plurality of IHS slots and the plurality of I/O switching module slots. An I/O switching module includes a plurality of interfaces. The I/O switching module may be coupled to a first I/O switching module slot and, in response, retrieve first I/O switching module slot information about the first I/O switching module slot, retrieve IHS information about IHSs located in the plurality of IHS slots that are interconnected with the first I/O switching module slot through the connection plane, and use the first I/O switching module slot information and the IHS information to identify each of the plurality of interfaces on the I/O switching module that is coupled to an IHS by that IHS and the first I/O switching module slot.

Abstract: A system and method for forwarding network traffic includes receiving a first flow of network traffic at an ingress port on a switch, collecting flow control metrics for a plurality of egress ports assigned to a link aggregation group of the switch, selecting a first egress port from the plurality of egress ports using a hashing strategy based on at least information associated with the flow control metrics, assigning the first flow to the first egress port, directing the first flow to the first egress port, and transmitting network traffic associated with the first flow using the first egress port.

Abstract: A system and method for forwarding network traffic includes receiving a first flow of network traffic at an ingress port on a switch, collecting flow control metrics for a plurality of egress ports assigned to a link aggregation group of the switch, selecting a first egress port from the plurality of egress ports using a hashing strategy based on at least information associated with the flow control metrics, assigning the first flow to the first egress port, directing the first flow to the first egress port, and transmitting network traffic associated with the first flow using the first egress port.

Abstract: An interface identification system includes an IHS enclosure including a plurality of IHS slots and a plurality of input/output (I/O) switching module slots. A connection plane provides interconnects between the plurality of IHS slots and the plurality of I/O switching module slots. An I/O switching module includes a plurality of interfaces. The I/O switching module may be coupled to a first I/O switching module slot and, in response, retrieve first I/O switching module slot information about the first I/O switching module slot, retrieve IHS information about IHSs located in the plurality of IHS slots that are interconnected with the first I/O switching module slot through the connection plane, and use the first I/O switching module slot information and the IHS information to identify each of the plurality of interfaces on the I/O switching module that is coupled to an IHS by that IHS and the first I/O switching module slot.

Abstract: A system and method for forwarding network traffic includes receiving a first flow of network traffic at an ingress port on a switch, collecting flow control metrics for a plurality of egress ports assigned to a link aggregation group of the switch, selecting a first egress port from the plurality of egress ports using a hashing strategy based on at least information associated with the flow control metrics, assigning the first flow to the first egress port, directing the first flow to the first egress port, and transmitting network traffic associated with the first flow using the first egress port.