Abstract: A power and/or electricity generating source and/or component that is TENG-based, and that may be configured as an assembly and/or component for powering one or more electronic devices, is disclosed, a case, carrier or other carrying container, for example a case for a cell phone, ipad, electronic tablet, personal computer, or any similar device, that provides an electricity source to power the cell phone, ipad, electronic tablet, is disclosed. The energy generating carriers and/or containers and configurations thereof, also provide an electricity energy storage source, such as a capacitor. This electronic energy storage source may be incorporated within an electronic device itself, or may be incorporated within the case and/or covering. A bridge rectifier is also provided in some embodiments of the case.

Abstract: Conventionally, users of integration platforms, or other platforms that utilize many different services, must install, manage, configure, and administer the underlying resources for connectivity with the platforms. Adapter orchestration as a service (AOaaS) simplifies this process by enabling users to quickly and easily deploy an adapter orchestration service comprising instances of selected adapters for multiple services in discrete, autonomous containers that can be spun up and down as needed. The adapters may translate data for all of the services to a common format. Clients may access the data for all of the adapters in the adapter orchestration service via a single application programming interface (API) of the adapter orchestration service, which provides access to the data in the common format.

Abstract: Typically, in-depth domain knowledge is required to efficiently query a data system. Accordingly, embodiments are disclosed for a no-code method for implementing data operations, such as extract, transform, load (ETL) operations on third-party platforms, such as enterprise resource planning (ERP) platforms. Disclosed embodiments may provide a graphical user interface that enables a user to construct a blueprint of a data operation using drag-and-drop operations on a virtual canvas. The blueprint may be translated into ETL instructions that are deployed on a proxy service for simplified access via a uniform resource locator (URL). When the URL is accessed, the proxy service may execute the ETL instructions to communicate with a domain-specific engine on a third-party platform to obtain the results of the data operation. These results may also be periodically cached according to time-to-live intervals to reduce overall retrieval times.

Abstract: Typically, in-depth domain knowledge is required to efficiently query a data system. Accordingly, embodiments are disclosed for a no-code method for implementing data operations, such as extract, transform, load (ETL) operations on third-party platforms, such as enterprise resource planning (ERP) platforms. Disclosed embodiments may provide a graphical user interface that enables a user to construct a blueprint of a data operation using drag-and-drop operations on a virtual canvas. The blueprint may be translated into ETL instructions that are deployed on a proxy service for simplified access via a uniform resource locator (URL). When the URL is accessed, the proxy service may execute the ETL instructions to communicate with a domain-specific engine on a third-party platform to obtain the results of the data operation. These results may also be periodically cached according to time-to-live intervals to reduce overall retrieval times.

Abstract: Currently, changes to third-party software services, such as the deprecation of certain components, must be manually monitored. Accordingly, embodiments are disclosed to automatically monitor changes to such services in a scalable manner. In particular, monitors may be configured to scrape webpages at URLs associated with deprecation or other information about the services, and manage review and resolution of each substantive change. The monitors may be used to facilitate up-to-date adapters for interfacing with the services in an integration platform as a service (iPaaS) platform.

Abstract: A power and/or electricity generating source and/or component that is TENG-based, and that may be configured as an assembly and/or component for powering one or more electronic devices, is disclosed, a case, carrier or other carrying container, for example a case for a cell phone, ipad, electronic tablet, personal computer, or any similar device, that provides an electricity source to power the cell phone, ipad, electronic tablet, is disclosed. The energy generating carriers and/or containers and configurations thereof, also provide an electricity energy storage source, such as a capacitor. This electronic energy storage source may be incorporated within an electronic device itself, or may be incorporated within the case and/or covering. A bridge rectifier is also provided in some embodiments of the case.

Abstract: A power and/or electricity generating source and/or component that is TENG-based, and that may be configured as an assembly and/or component for powering one or more electronic devices, is disclosed, A case, carrier or other carrying container, for example a case for a cell phone, ipad, electronic tablet, personal computer, or any similar device, that provides an electricity source to power the cell phone, ipad, electronic tablet, is disclosed. The energy generating carriers and/or containers and configurations thereof, also provide an electricity energy storage source. This electronic energy storage source may be incorporated within an electronic device itself, or may be incorporated within the case and/or covering. Upon walking or touching a surface of an electronic device, the power generating source will harness mechanical energy, and provide for the generation of electricity with the one or more TENG components (TESTEC) that comprise the energy generating unit. Metal particles (silver, copper, etc.

Abstract: Currently, changes to third-party software services, such as the deprecation of certain components, must be manually monitored. Accordingly, embodiments are disclosed to automatically monitor changes to such services in a scalable manner. In particular, monitors may be configured to scrape webpages at URLs associated with deprecation or other information about the services, and manage review and resolution of each substantive change. The monitors may be used to facilitate up-to-date adapters for interfacing with the services in an integration platform as a service (iPaaS) platform.

Abstract: Conventionally, users of integration platforms, or other platforms that utilize many different services, must install, manage, configure, and administer the underlying resources for connectivity with the platforms. Adapter orchestration as a service (AOaaS) simplifies this process by enabling users to quickly and easily deploy an adapter orchestration service comprising instances of selected adapters for multiple services in discrete, autonomous containers that can be spun up and down as needed. The adapters may translate data for all of the services to a common format. Clients may access the data for all of the adapters in the adapter orchestration service via a single application programming interface (API) of the adapter orchestration service, which provides access to the data in the common format.

Abstract: A power and/or electricity generating source and/or component that is TENG-based, and that may be configured as an assembly and/or component for powering one or more electronic devices, is disclosed, A case, carrier or other carrying container, for example a case for a cell phone, ipad, electronic tablet, personal computer, or any similar device, that provides an electricity source to power the cell phone, ipad, electronic tablet, is disclosed. The energy generating carriers and/or containers and configurations thereof, also provide an electricity energy storage source. This electronic energy storage source may be incorporated within an electronic device itself, or may be incorporated within the case and/or covering. Upon walking or touching a surface of an electronic device, the power generating source will harness mechanical energy, and provide for the generation of electricity with the one or more TENG components (TESTEC) that comprise the energy generating unit. Metal particles (silver, copper, etc.

Abstract: A cutting element configured to mitigate spalling on a front cutting face thereof. The cutting element include a diamond table having the front cutting face defined thereon and at least one recess defined on the front cutting face of the diamond table. The at least one recess has a width within a range of 25.0 ?m to 650 ?m and a depth within a range of 25.0 ?m to 600 ?m. Methods of forming a cutting element configured to mitigate spalling on the front cutting face thereof. The methods including forming at least one recess on a front cutting face of a diamond table to have a width within a range of 25.0 ?m to 650 ?m and a depth within a range of 25.0 ?m to 600 ?m. Method of using a cutting element configured to mitigate spalling on the front cutting face thereof.

Abstract: A cutting element for an earth-boring tool includes a substrate and volume of superabrasive material positioned on the substrate. The volume of superabrasive material includes a cutting face having at least one recess extending into the volume of superabrasive material and/or at least one protrusion extending outward from the volume of superabrasive material. The volume of superabrasive material includes a first chamfer surface having a peripheral edge and a radially innermost edge. The peripheral edge of the first chamfer surface is located proximate a cutting edge of the volume of superabrasive material. A radial width of the first chamfer surface is between about 0.002 inch and about 0.045 inch. The volume of superabrasive material also includes a second chamfer surface having a peripheral edge and a radially innermost edge. The peripheral edge of the second chamfer surface is located adjacent the radially innermost edge of the first chamfer surface.

Abstract: Methods of evaluating prototype cutting elements for earth-boring tools may involve generating first and second sets of virtual representations of cutting elements from first and second sets of used cutting elements. First and second sets of measures of damage corresponding to damage for each of the first and second sets set of virtual representations of cutting elements may be determined. A best-performing set of cutting elements from the first and second sets of used cutting elements according to the first and second sets of measures of damage may be identified by performing a statistical analysis.

Abstract: An earth-boring tool includes a cutting element having a first volume of polycrystalline material including catalyst material and a second volume free of catalyst material. A boundary between the first volume and the second volume is nonlinear in a cross-sectional plane that includes a centerline of the cutting element and an anticipated point of contact of the cutting element with the surface of the formation to be cut. Each line tangent the boundary in the cross-sectional plane forms an angle with the centerline of the cutting element greater than the contact back rake angle of the cutting element. In some cutting elements, some portions of the boundary may have another selected shape. Some cutting elements have a boundary wherein tangent lines form angles of greater than 20° with the centerline of the cutting element. Methods of forming wellbores are also disclosed.

Abstract: A cutting element for an earth-boring tool includes a substrate and volume of superabrasive material positioned on the substrate. The volume of superabrasive material includes a cutting face having at least one recess extending into the volume of superabrasive material and/or at least one protrusion extending outward from the volume of superabrasive material. The volume of superabrasive material includes a first chamfer surface having a peripheral edge and a radially innermost edge. The peripheral edge of the first chamfer surface is located proximate a cutting edge of the volume of superabrasive material. A radial width of the first chamfer surface is between about 0.002 inch and about 0.045 inch. The volume of superabrasive material also includes a second chamfer surface having a peripheral edge and a radially innermost edge. The peripheral edge of the second chamfer surface is located adjacent the radially innermost edge of the first chamfer surface.

Abstract: A cutting element for an earth-boring tool includes a substrate and volume of superabrasive material positioned on the substrate. The volume of superabrasive material includes a cutting face having at least one recess extending into the volume of superabrasive material and/or at least one protrusion extending outward from the volume of superabrasive material. The volume of superabrasive material includes a first chamfer surface having a peripheral edge and a radially innermost edge. The peripheral edge of the first chamfer surface is located proximate a cutting edge of the volume of superabrasive material. A radial width of the first chamfer surface is between about 0.002 inch and about 0.045 inch. The volume of superabrasive material also includes a second chamfer surface having a peripheral edge and a radially innermost edge. The peripheral edge of the second chamfer surface is located adjacent the radially innermost edge of the first chamfer surface.

Abstract: Methods of evaluating prototype cutting elements for earth-boring tools may involve generating first and second sets of virtual representations of cutting elements from first and second sets of used cutting elements. First and second sets of measures of damage corresponding to damage for each of the first and second sets set of virtual representations of cutting elements may be determined. A best-performing set of cutting elements from the first and second sets of used cutting elements according to the first and second sets of measures of damage may be identified by performing a statistical analysis.

Abstract: A cutting element configured to mitigate spalling on a front cutting face thereof. The cutting element include a diamond table having the front cutting face defined thereon and at least one recess defined on the front cutting face of the diamond table. The at least one recess has a width within a range of 25.0 ?m to 650 ?m and a depth within a range of 25.0 ?m to 600 ?m. Methods of forming a cutting element configured to mitigate spalling on the front cutting face thereof. The methods including forming at least one recess on a front cutting face of a diamond table to have a width within a range of 25.0 ?m to 650 ?m and a depth within a range of 25.0 ?m to 600 ?m. Method of using a cutting element configured to mitigate spalling on the front cutting face thereof.

Abstract: In one aspect, a drill bit is disclosed that in one embodiment may include a bit body, a rotating cutter on the bit body, and a metallic seal between the bit body and the rotating cutter that includes a first seal member, a second seal member having a first end in sealing contact with the first seal member, a second end fixed relative to the first end and a bias member between the first end and the second end that adjusts the load on the first seal member in response to external load applied on the drill bit.

Abstract: Bearings for downhole tools including a first bearing member and a second bearing member, at least one of the first and second bearing members having a channel formed therein. Methods of cooling bearings of downhole tools comprise flowing a fluid within a channel formed in at least one bearing member. Heat is transferred from at least the at least one bearing member to the fluid. The fluid is flowed away from the at least one bearing member.