Abstract: A method for performing context-based analysis using a processor is disclosed. The method is initialized when the processor receives a first query from a first user on a first user device. Further, processor is configured to send the first query from the first user device using metadata from a database management system over a network. The sent first query is analyzed. The processor is configured to analyze the first query and determine a first context of the first query to generate a first user metadata based on the first context. Further, the processor is configured to identify the key performance indicators (KPIs) in the first user metadata using an intelligent visualization configuration. The processor is configured to use the intelligent visualization configuration to generate a first visual representation of the identified KPIs.

Abstract: A system and a method for a single sign-on (SSO) authentication process that enables digital communication between multiple entities. The system includes a server with one or more processors. These processors receive a first authentication request from a first entity to access a second entity, which employs a first authentication process. Based on the request, the processors generate a second authentication request corresponding to the second authentication process used by the second entity. The second authentication request is then communicated to the second entity. After receiving a first response from the second entity, the processors generate a second response corresponding to that first response. This second response is communicated back to the first entity. Upon validating the second response, the processors allow communication between the first and second entities.

Abstract: A method for removing a hip stem from bone comprises drilling a channel through the bone adjacent to the hip stem from a proximal end to a distal end thereof, the channel defining a longitudinal first axis. The method further comprises drilling a hole along a second axis through the bone adjacent to a distal end of the hip stem such that the channel and the hole intersect. The method additionally comprises inserting a first end of a cutting wire through the channel and the hole and cutting an interface between the hip stem and the bone with the cutting wire.

Abstract: A system for data manipulation and management, the system comprising a data integration engine, a data acquisition module, a data transformation module, a data output module and a spark engine. The data integration engine is configured to receive a job specification, wherein the job specification comprises a set of instructions. The data acquisition module is configured to acquire a set of data from a database. The data transformation module is configured to transform the set of data based on the set of instructions defined in the job specification. The data output module is configured to store a transformed set of data to the database. The spark engine is configured to receive instructions from the data acquisition module, the data transformation module, and the data output module, wherein the data acquisition module, the data transformation module, and the data output module are configured to receive instructions from the data integration engine.

Abstract: A system and a method for a single sign-on (SSO) authentication process that enables digital communication between multiple entities. The system includes a server with one or more processors. These processors receive a first authentication request from a first entity to access a second entity, which employs a first authentication process. Based on the request, the processors generate a second authentication request corresponding to the second authentication process used by the second entity. The second authentication request is then communicated to the second entity. After receiving a first response from the second entity, the processors generate a second response corresponding to that first response. This second response is communicated back to the first entity. Upon validating the second response, the processors allow communication between the first and second entities.

Abstract: A system for data manipulation and management, the system comprising a data integration engine, a data acquisition module, a data transformation module, a data output module and a spark engine. The data integration engine is configured to receive a job specification, wherein the job specification comprises a set of instructions. The data acquisition module is configured to acquire a set of data from a database. The data transformation module is configured to transform the set of data based on the set of instructions defined in the job specification. The data output module is configured to store a transformed set of data to the database. The spark engine is configured to receive instructions from the data acquisition module, the data transformation module, and the data output module, wherein the data acquisition module, the data transformation module, and the data output module are configured to receive instructions from the data integration engine.

Abstract: A method for performing context-based analysis using a processor is disclosed. The method is initialized when the processor receives a first query from a first user on a first user device. Further, processor is configured to send the first query from the first user device using metadata from a database management system over a network. The sent first query is analyzed. The processor is configured to analyze the first query and determine a first context of the first query to generate a first user metadata based on the first context. Further, the processor is configured to identify the key performance indicators (KPIs) in the first user metadata using an intelligent visualization configuration. The processor is configured to use the intelligent visualization configuration to generate a first visual representation of the identified KPIs.

Abstract: A method for removing a hip stem from bone comprises drilling a channel through the bone adjacent to the hip stem from a proximal end to a distal end thereof, the channel defining a longitudinal first axis. The method further comprises drilling a hole along a second axis through the bone adjacent to a distal end of the hip stem such that the channel and the hole intersect. The method additionally comprises inserting a first end of a cutting wire through the channel and the hole and cutting an interface between the hip stem and the bone with the cutting wire.

Abstract: Methods, systems, and devices for an H-bridge driver for haptics and camera voice coil motor applications are described. A device may generate a control signal for an application executing on the device such as a camera application, a gaming application, or any application receiving a user input or outputting feedback to the user. The device may generate the control signal using a voice coil motor driver of a camera component of the device. The device may drive a haptics motor based on the generated control signal and generate a haptic response based on driving the haptics motor. The device may, as a result, output the generated haptic response. Additionally or alternatively, the device may drive a voice coil motor based on the generated control signal and may control a camera component of the device based on driving the voice coil motor or the haptics motor, or both.

Abstract: Methods, systems, and devices for an H-bridge driver for haptics and camera voice coil motor applications are described. A device may generate a control signal for an application executing on the device such as a camera application, a gaming application, or any application receiving a user input or outputting feedback to the user. The device may generate the control signal using a voice coil motor driver of a camera component of the device. The device may drive a haptics motor based on the generated control signal and generate a haptic response based on driving the haptics motor. The device may, as a result, output the generated haptic response. Additionally or alternatively, the device may drive a voice coil motor based on the generated control signal and may control a camera component of the device based on driving the voice coil motor or the haptics motor, or both.