Abstract: A process for obtaining a product of high iron content and high physical and metallurgical performance for use in reduction furnaces (blast furnaces, and direct reduction) and melting furnaces (smelters, melters, and electric furnaces), aiming at the sustainable production of iron and steel. The process includes mixing iron ore fines with biomass, binders, nanomaterials, additives, and catalysts, and performing subsequent steps of comminution, agglomeration, heat treatment, solid-solid separation, and coating.

Abstract: This invention refers to a grain flaking modular system, a grain flaking system, and a method that produces a grain flake within a predetermined specification. The grain flaking modular system comprises: valves (124); a PLC (130) connected to the valves (124); and an external optimization unit (140) connected to the PLC (130), wherein the external optimization unit (140) is configured to define a pressure reference (A). The grain flaking system (100) comprises: flaking rollers (110); and a programmable logic controller, PLC (PLC), configured to: obtain a pressure reference (A), and control a flaking pressure through the pressure reference (A) obtained. The grain flaking method comprises: obtaining (210) the pressure reference; applying (220) a flaking pressure to a flow of grains, wherein the flaking pressure is defined through the pressure reference obtained; and adjusting (230) the pressure reference.

Abstract: This invention describes a measurement system (100), a measurement method, and a collection, movement, and measurement system for grains (200) run through a flaking process, in order to define the grain flake thickness. The grain flake measurement system comprises: an image collection device (110) configured to collect an image of one of the grain flakes; and an acquisition unit (120) configured to receive the of the collected grain flake image through the image collection device and perform a measurement of the grain flake thickness. The grain flake measurement method comprises the steps of: collecting (560) a grain flake image through an image collection device; and measuring (561) the grain flake thickness through the collected image. The grain flake collection, movement, and measurement system (200) comprises: a grain flake collection device (210); a measurement device (130); a movement and selection device (220); an acquisition unit (120); and a command unit (230).

Abstract: A measurement system (100), a measurement method, and a calibration method for a grain particle granulometry measurement system run through a cracking process, in order to define their particle granulometry and analyze its functioning. The grain particle granulometry measurement system (100) comprises: a vibration measurement device (110); and the processing unit (150) connected to the vibration measurement device (110), wherein the vibration measurement device (110) is configured to measure the vibration characteristics of a vibration caused by impacts generated by the grain flow in the vibration measurement device. The grain particle granulometry measurement method comprises: measuring (320) the vibration characteristics caused by the impact of the grain flow; and calculating (370) the grain particle granulometry in the grain flow.

Abstract: Network devices may be configured to execute computer-executable instructions to instantiate a deployable unit based on the instructions. The instructions may include a virtual network function (VNF) template that includes: a virtualized deployment unit (VDU) template that describes the deployable unit that includes containers; and a connection point template bound to the VDU template. The deployable unit may provide services of a network function in an access network or a core network. The deployable unit may include an interface defined by the connection point template.

Abstract: This invention refers to a modular system for a grain cracker, and a grain cracking system and method that generates cracked grains within a predetermined specification. The modular system comprises a motor (124); a PLC (134); and an external optimization unit (136) to drive the motor (124), based on an adjustment point (A). The grain cracking system (100) comprises: rollers (110); and a programmable logic controller, PLC (134), configured to: obtain an adjustment point (A), and control the gap between the rollers (110) from the obtained adjustment point (A). The grain cracking method comprises the steps of: obtaining (510) an adjustment point; controlling (520) the gap between the rollers; and altering (530) the adjustment point, should the characteristics of the cracked grains coming from the rollers not be compliant with the desired specifications, wherein the step of altering the adjustment point is performed continuously and automatically.

Abstract: This invention refers to a grain flaking modular system, a grain flaking system, and a method that produces a grain flake within a predetermined specification. The grain flaking modular system comprises: valves (124); a PLC (130) connected to the valves (124); and an external optimization unit (140) connected to the PLC (130), wherein the external optimization unit (140) is configured to define a pressure reference (A). The grain flaking system (100) comprises: flaking rollers (110); and a programmable logic controller, PLC (PLC), configured to: obtain a pressure reference (A), and control a flaking pressure through the pressure reference (A) obtained. The grain flaking method comprises: obtaining (210) the pressure reference; applying (220) a flaking pressure to a flow of grains, wherein the flaking pressure is defined through the pressure reference obtained; and adjusting (230) the pressure reference.

Abstract: A measurement system (100), a measurement method, and a calibration method for a grain particle granulometry measurement system run through a cracking process, in order to define their particle granulometry and analyze its functioning. The grain particle granulometry measurement system (100) comprises: a vibration measurement device (110); and the processing unit (150) connected to the vibration measurement device (110), wherein the vibration measurement device (110) is configured to measure the vibration characteristics of a vibration caused by impacts generated by the grain flow in the vibration measurement device. The grain particle granulometry measurement method comprises: measuring (320) the vibration characteristics caused by the impact of the grain flow; and calculating (370) the grain particle granulometry in the grain flow.

Abstract: A system may receive a first definition for a virtualized instance of a network function. The first definition may include a first set of declarations in a first format that is different than respective formats supported by different virtualized environments. The system may select a first virtualized environment to run the virtualized instance based on requirements specified within the first definition, and may generate a second definition with a second set of declarations that map the first set of declarations from the first format to a second format supported by the first virtualized environment. The system may deploy the virtualized instance to the first virtualized environment using the second set of declarations from the second definition. Deploying the virtualized instance may include configuring its operation based on some of the second set of declarations matching a configuration format supported by the first virtualized environment.

Abstract: The present invention relates to a device for heating materials using microwaves, particularly applicable to the heating of ore products, which makes it possible to eliminate the use of fossil fuels (for example natural gas, coal, fuel oil, etc.) for generating heat for heating this type of material, rendering viable the use of microwaves for heating materials through a more efficient dispersion of the electromagnetic waves thereof. The present invention also relates to systems that make use of the heating device as set out above, and a method for heating using microwaves.

Abstract: A system may receive a first definition for a virtualized instance of a network function. The first definition may include a first set of declarations in a first format that is different than respective formats supported by different virtualized environments. The system may select a first virtualized environment to run the virtualized instance based on requirements specified within the first definition, and may generate a second definition with a second set of declarations that map the first set of declarations from the first format to a second format supported by the first virtualized environment. The system may deploy the virtualized instance to the first virtualized environment using the second set of declarations from the second definition. Deploying the virtualized instance may include configuring its operation based on some of the second set of declarations matching a configuration format supported by the first virtualized environment.

Abstract: Network devices may be configured to execute computer-executable instructions to instantiate a deployable unit based on the instructions. The instructions may include a virtual network function (VNF) template that includes: a virtualized deployment unit (VDU) template that describes the deployable unit that includes containers; and a connection point template bound to the VDU template. The deployable unit may provide services of a network function in an access network or a core network. The deployable unit may include an interface defined by the connection point template.

Abstract: A Network Functions Virtualization (NFV) system reads, from a data bus coupled to the NFV system, Virtual Network Function (VNF) parameters published to the data bus by a new VNF. The NFV system publishes, to the data bus based on the VNF parameters, instructions to multiple components of the NFV system defining which VNF capabilities of the new VNF are to be managed, controlled, or monitored by which of the multiple NFV system components. The multiple components of the NFV system control, manage, or monitor the new VNF based on the published instructions. The data bus can include a Data Movement as a Platform (DMaaP) system that publishes and subscribes to streams of records.

Abstract: An inter-bus hub, within a hierarchical data bus system, has a partitioned log that includes a first partition and a second partition, where the inter-bus hub is coupled to a first data bus residing in a first segment and to a second data bus residing in a second segment. The inter-bus hub aggregates, based on at least one set of rules, first data from the first data bus, and stores the first data in the first partition. The inter-bus hub aggregates, based on the at least one set of rules, second data from the second data bus, and stores storing the second data in the second partition. The inter-bus hub relays the first data from the first partition to a first destination and relays the second data from the second partition to a second destination.

Abstract: A Network Functions Virtualization (NFV) system reads, from a data bus coupled to the NFV system, Virtual Network Function (VNF) parameters published to the data bus by a new VNF. The NFV system publishes, to the data bus based on the VNF parameters, instructions to multiple components of the NFV system defining which VNF capabilities of the new VNF are to be managed, controlled, or monitored by which of the multiple NFV system components. The multiple components of the NFV system control, manage, or monitor the new VNF based on the published instructions. The data bus can include a Data Movement as a Platform (DMaaP) system that publishes and subscribes to streams of records.

Abstract: A Network Functions Virtualization (NFV) system reads, from a data bus coupled to the NFV system, Virtual Network Function (VNF) parameters published to the data bus by a new VNF. The NFV system publishes, to the data bus based on the VNF parameters, instructions to multiple components of the NFV system defining which VNF capabilities of the new VNF are to be managed, controlled, or monitored by which of the multiple NFV system components. The multiple components of the NFV system control, manage, or monitor the new VNF based on the published instructions. The data bus can include a Data Movement as a Platform (DMaaP) system that publishes and subscribes to streams of records.

Abstract: A Network Functions Virtualization (NFV) system reads, from a data bus coupled to the NFV system, Virtual Network Function (VNF) parameters published to the data bus by a new VNF. The NFV system publishes, to the data bus based on the VNF parameters, instructions to multiple components of the NFV system defining which VNF capabilities of the new VNF are to be managed, controlled, or monitored by which of the multiple NFV system components. The multiple components of the NFV system control, manage, or monitor the new VNF based on the published instructions. The data bus can include a Data Movement as a Platform (DMaaP) system that publishes and subscribes to streams of records.

Abstract: A Network Functions Virtualization (NFV) system reads, from a data bus coupled to the NFV system, Virtual Network Function (VNF) parameters published to the data bus by a new VNF. The NFV system publishes, to the data bus based on the VNF parameters, instructions to multiple components of the NFV system defining which VNF capabilities of the new VNF are to be managed, controlled, or monitored by which of the multiple NFV system components. The multiple components of the NFV system control, manage, or monitor the new VNF based on the published instructions. The data bus can include a Data Movement as a Platform (DMaaP) system that publishes and subscribes to streams of records.

Abstract: The present application describes the creation of a flexible textile structure with sensing and lighting capabilities without the loss of important features of a typical textile, for instance, comfort, seamless and mechanical flexibility. As sensing applications are described three different approaches that may or may not work together in the same system: a directly printed self-capacitive sensor, a knitted textile sensor and the integration of temperature/humidity bulk capacitive sensors directly on the textile. As lighting applications for decorative and signage purposes are used two different approaches that could work individually or together: an electroluminescent sensing device and the use of a hybrid sensor that includes the use of SMD LEDs and a printed self-capacitive sensor.

Abstract: An inter-bus hub, within a hierarchical data bus system, has a partitioned log that includes a first partition and a second partition, where the inter-bus hub is coupled to a first data bus residing in a first segment and to a second data bus residing in a second segment. The inter-bus hub aggregates, based on at least one set of rules, first data from the first data bus, and stores the first data in the first partition. The inter-bus hub aggregates, based on the at least one set of rules, second data from the second data bus, and stores storing the second data in the second partition. The inter-bus hub relays the first data from the first partition to a first destination and relays the second data from the second partition to a second destination.