mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: at a data plane node having one or more processors, non-transitory memory, and a control interface between a network function module associated with the data plane node and a switch associated with the data plane node, wherein the data plane node is controlled by and communicatively coupled to a session management function, SMF: determining whether an offload capability is available for a data flow received at an ingress network interface of the data plane node, based on at least one of data flow type and a service quality criterion of the data flow; determining whether the data flow satisfies offload criteria in response to determining that the offload capability is available; and providing, by the network function module associated with the data plane node, instructions to offload the flow by bypassing the network function module associated with the data plane node and providing the data flow to at least one of the switch associated with the data plane node or an egress network interface associated with the data plane node in response to determining that the offload capability is available and in response to determining that the offload criteria is satisfied, wherein the instructions are based on security credentials associated with the SMF and the switch. at a data plane node having one or more processors, non-transitory memory, and a control interface between a network function module associated with the data plane node and a switch associated with the data plane node, wherein the data plane node is controlled by and communicatively coupled to a session management function, SMF: determining whether an offload capability is available for a data flow received at an ingress network interface of the data plane node, based on at least one of data flow type and a service quality criterion of the data flow; determining whether the data flow satisfies offload criteria in response to determining that the offload capability is available; and providing, by the network function module associated with the data plane node, instructions to offload the flow by bypassing the network function module associated with the data plane node and providing the data flow to at least one of the switch associated with the data plane node or an egress network interface associated with the data plane node in response to determining that the offload capability is available and in response to determining that the offload criteria is satisfied, wherein the instructions are based on security credentials associated with the SMF and the switch.
Optical sub-assembly, particularly TO-can, comprising: a) multiple pins extending from the outside to the inside of the optical sub-assembly; b) a light receiver or a light transmitter (VCSEL) arranged inside the optical sub-assembly; c) a receiver circuit respectively a transmitter circuit arranged inside the optical sub-assembly and connected between the multiple pins and the light receiver respectively the light transmitter (VCSEL), wherein the receiver circuit comprises a receiver communication interface (AP, AN) in order to transform an output signal of the light receiver into a communication signal, wherein the transmitter circuit comprises a transmitter communication interface (ZP, ZN) in order to transform a communication signal into an input signal of the light transmitter (VCSEL); d) a control interface (SCL, SDA) connected with the receiver circuit respectively the transmitter circuit is arranged inside the optical sub-assembly, wherein the control interface (SCL, SDA) is connectable to two of the multiple pins of the optical sub-assembly, characterized in that e) an analog to digital converter is arranged inside the optical sub-assembly in order to convert an analog measurement of an operational parameter of the optical sub-assembly into digital data. a) multiple pins extending from the outside to the inside of the optical sub-assembly; b) a light receiver or a light transmitter (VCSEL) arranged inside the optical sub-assembly; c) a receiver circuit respectively a transmitter circuit arranged inside the optical sub-assembly and connected between the multiple pins and the light receiver respectively the light transmitter (VCSEL), wherein the receiver circuit comprises a receiver communication interface (AP, AN) in order to transform an output signal of the light receiver into a communication signal, wherein the transmitter circuit comprises a transmitter communication interface (ZP, ZN) in order to transform a communication signal into an input signal of the light transmitter (VCSEL); d) a control interface (SCL, SDA) connected with the receiver circuit respectively the transmitter circuit is arranged inside the optical sub-assembly, wherein the control interface (SCL, SDA) is connectable to two of the multiple pins of the optical sub-assembly, characterized in that e) an analog to digital converter is arranged inside the optical sub-assembly in order to convert an analog measurement of an operational parameter of the optical sub-assembly into digital data.
A method of pairing two wireless devices (102, 104A-C), the method comprising: executing a pairing application on one of two wireless devices to place the one wireless device in a pairing mode (502, 506); physically moving at least one of the wireless devices to perform at least one pre-defined pairing motion event to satisfy at least one pairing condition (402, 404); detecting satisfaction of the at least one pairing condition with an accelerometer or radio receiver of the same one of the two wireless devices that executes the pairing application; and establishing a communications link between the two wireless devices in response to detecting satisfaction of the at least one pairing condition. executing a pairing application on one of two wireless devices to place the one wireless device in a pairing mode (502, 506); physically moving at least one of the wireless devices to perform at least one pre-defined pairing motion event to satisfy at least one pairing condition (402, 404); detecting satisfaction of the at least one pairing condition with an accelerometer or radio receiver of the same one of the two wireless devices that executes the pairing application; and establishing a communications link between the two wireless devices in response to detecting satisfaction of the at least one pairing condition.
An optical sight for use with a firearm comprising: a housing that can be attached to the firearm; an optics train disposed at least partially within said housing and including at least one prism having a first surface; a display associated with said first surface; a processor in communication with said display and operable to provide said display with an image; and an infrared camera in communication with said processor and operable to provide said processor with thermal-energy data for use by the processor in generating said image; characterized by: said display being disposed on said first surface and the display being operable to selectively supply said first surface with the image. a housing that can be attached to the firearm; an optics train disposed at least partially within said housing and including at least one prism having a first surface; a display associated with said first surface; a processor in communication with said display and operable to provide said display with an image; and an infrared camera in communication with said processor and operable to provide said processor with thermal-energy data for use by the processor in generating said image; characterized by: said display being disposed on said first surface and the display being operable to selectively supply said first surface with the image.
An illumination lens for distributing light from a light source, comprising: a lens body including an incident face, a reflection face,and an emission face; and a mounted part for attaching the lens body to a mating component, wherein the incident face is formed in a recessed shape at a bottom apex part of said lens body to receive light from the light source; the reflection face is formed on an inner side of an outer periphery of said lens body, so as to totally reflect the light from said incident face; the emission face is formed at an upper end of said lens body to emit light from said incident face and said reflection face to an outside of the lens body, said mounted part is formed on the outer periphery of the lens body at two-thirds of a whole height of the lens body from the bottom apex part thereof, along a height direction of said reflection face, said incident face is configured to distribute light only to a predetermined range of the reflection face, corresponding to a part of the reflection face which ranges from the bottom of the apex part to two thirds of the overall height of the lens body, and said incident face is configured not to distribute light to an upper portion of the reflection face adjacent to the emission face, said upper portion including a location where the mounted part is formed and a further portion of the reflection face extending from the mounted part to the emission face. a lens body including an incident face, a reflection face,and an emission face; and a mounted part for attaching the lens body to a mating component, wherein the incident face is formed in a recessed shape at a bottom apex part of said lens body to receive light from the light source; the reflection face is formed on an inner side of an outer periphery of said lens body, so as to totally reflect the light from said incident face; the emission face is formed at an upper end of said lens body to emit light from said incident face and said reflection face to an outside of the lens body, said mounted part is formed on the outer periphery of the lens body at two-thirds of a whole height of the lens body from the bottom apex part thereof, along a height direction of said reflection face, said incident face is configured to distribute light only to a predetermined range of the reflection face, corresponding to a part of the reflection face which ranges from the bottom of the apex part to two thirds of the overall height of the lens body, and said incident face is configured not to distribute light to an upper portion of the reflection face adjacent to the emission face, said upper portion including a location where the mounted part is formed and a further portion of the reflection face extending from the mounted part to the emission face.
Plug connector part for transmitting a charging current, with - a first housing part which has a plug-in portion and at least one contact opening, which is arranged in the plug-in portion, with a contact arranged in said contact opening, wherein the plug-in portion can be brought into engagement along a plug-in direction with another plug connector part and has an outer wall extended along the plug-in direction, and - a second housing part which has a wall which lies opposite the outer wall of the plug-in portion at least in sections and, with the outer wall, forms an intermediate space positioned between the outer wall of the plug-in portion and the wall of the second housing part, characterized in that the plug-in portion (40, 41) has at least one drain opening which extends from the at least one contact opening to the outer wall (40A, 41A) and is designed to conduct a liquid out of the contact opening into the intermediate space (Z1, Z2) between the outer wall (40A, 41A) of the plug-in portion (40, 41) of the first housing part and the wall (50, 51) of the second housing part. - a first housing part which has a plug-in portion and at least one contact opening, which is arranged in the plug-in portion, with a contact arranged in said contact opening, wherein the plug-in portion can be brought into engagement along a plug-in direction with another plug connector part and has an outer wall extended along the plug-in direction, and - a second housing part which has a wall which lies opposite the outer wall of the plug-in portion at least in sections and, with the outer wall, forms an intermediate space positioned between the outer wall of the plug-in portion and the wall of the second housing part,
A 3D printer material comprising: an outer layer; and an inner layer, wherein a heat quantity of crystallization of the 3D printer material in differential scanning calorimetry is from 20 to 60 J/g as measured according to the method disclosed in the present specification, and the outer layer contains a resin composition containing a crystalline polyamide-based resin and a component that delays crystallization of the crystalline polyamide-based resin. an outer layer; and an inner layer, wherein a heat quantity of crystallization of the 3D printer material in differential scanning calorimetry is from 20 to 60 J/g as measured according to the method disclosed in the present specification, and the outer layer contains a resin composition containing a crystalline polyamide-based resin and a component that delays crystallization of the crystalline polyamide-based resin.
An additive manufacturing process, comprising: forming a first layer of build material; solidifying build material in the first layer to form a first slice by dispensing a coalescing agent on to build material in the first layer in a first pattern of the first slice and then applying light energy to patterned build material in the first layer; dispensing a coalescence modifier agent on to build material in the first layer covering an area where a second slice will overhang the first slice; forming a second layer of build material on the first layer of build material following solidification of the build material in the first layer to form the first slice; and solidifying build material in the second layer to form a second slice overhanging the first slice wherein the coalescence modifier agent prevents build material from reaching temperatures above its melting point during heating; where the coalescence modifier agent is dispensed before, during or after solidifying build material in the first layer. forming a first layer of build material; solidifying build material in the first layer to form a first slice by dispensing a coalescing agent on to build material in the first layer in a first pattern of the first slice and then applying light energy to patterned build material in the first layer; dispensing a coalescence modifier agent on to build material in the first layer covering an area where a second slice will overhang the first slice; forming a second layer of build material on the first layer of build material following solidification of the build material in the first layer to form the first slice; and solidifying build material in the second layer to form a second slice overhanging the first slice wherein the coalescence modifier agent prevents build material from reaching temperatures above its melting point during heating; where the coalescence modifier agent is dispensed before, during or after solidifying build material in the first layer.
An X-ray light source, comprising an anode target and cathodes, the anode target comprising: a plurality of target structures, configured to receive electron beams emitted by the cathodes to generate rays, the plurality of target structures being of three-dimensional structures having bevels; a copper cooling body, configured to bear the target structures; a cooling oil tube, configured to cool the anode target; and a shielding layer, configured to shield the rays generated by the target structures and comprise a tungsten shielding layer; wherein the copper cooling body comprises an oxygen-free copper cooling body; wherein a plurality of cathodes are arranged on one side of the anode target and a plurality of cathodes are arranged on another side of the anode target, and wherein two adjacent target structures of the plurality of target structures are arranged in a staggered manner, and the bevels of the two adjacent target structures face towards opposite directions to receive electron beams emitted by the cathodes on the two sides of the target structures, so that target spots where the electron beams emitted by the cathodes on the two sides of the anode target bombard the anode target are all distributed in a straight line. a plurality of target structures, configured to receive electron beams emitted by the cathodes to generate rays, the plurality of target structures being of three-dimensional structures having bevels; a copper cooling body, configured to bear the target structures; a cooling oil tube, configured to cool the anode target; and a shielding layer, configured to shield the rays generated by the target structures and comprise a tungsten shielding layer; wherein the copper cooling body comprises an oxygen-free copper cooling body; wherein a plurality of cathodes are arranged on one side of the anode target and a plurality of cathodes are arranged on another side of the anode target, and wherein two adjacent target structures of the plurality of target structures are arranged in a staggered manner, and the bevels of the two adjacent target structures face towards opposite directions to receive electron beams emitted by the cathodes on the two sides of the target structures, so that target spots where the electron beams emitted by the cathodes on the two sides of the anode target bombard the anode target are all distributed in a straight line.
A method of filling a shooting pot cavity in a molding system, the method comprising: injecting resin from an injection unit into a refill melt passage, which fluidly connects the injection unit and the shooting pot cavity, to fill the shooting pot cavity; measuring a property of the resin at a predetermined location in the molding system; determining that the measured property is outside of a threshold range for the property, the threshold range being associated with the predetermined location; selecting an operational parameter to adjust, the operational parameter associated with the measured property and the predetermined location, wherein the operational parameter comprises a volume of resin in a filled shooting pot cavity; and adjusting the volume of resin to change the measured property of the resin at the predetermined location; wherein measuring a property of the resin comprises sensing a pressure of the resin at the predetermined location. injecting resin from an injection unit into a refill melt passage, which fluidly connects the injection unit and the shooting pot cavity, to fill the shooting pot cavity; measuring a property of the resin at a predetermined location in the molding system; determining that the measured property is outside of a threshold range for the property, the threshold range being associated with the predetermined location; selecting an operational parameter to adjust, the operational parameter associated with the measured property and the predetermined location, wherein the operational parameter comprises a volume of resin in a filled shooting pot cavity; and adjusting the volume of resin to change the measured property of the resin at the predetermined location; wherein measuring a property of the resin comprises sensing a pressure of the resin at the predetermined location.
Surge arrester comprising - a fluid-tight housing, - an arresting element having a longitudinal axis, said arresting element being arranged in the fluid-tight housing wherein the housing is embodied in substantially cylindrical fashion, and wherein a housing axis extends along a cylinder axis in the longitudinal direction, - a high-voltage contact, which electrically connects the interior to the exterior of the housing, and - a contact element, via which an electrical connection from the arresting element to the high-voltage contact is producible, wherein the arresting element is oriented with its longitudinal axis parallel to the housing axis, and the contact element is arranged eccentrically with respect to the longitudinal axis and it is possible to set a position of the contact element in a plane perpendicular to the longitudinal axis, characterized in that the contact element is connected to the arresting element by an eccentric disc, which is rotatable about the longitudinal axis. - a fluid-tight housing, - an arresting element having a longitudinal axis, said arresting element being arranged in the fluid-tight housing wherein the housing is embodied in substantially cylindrical fashion, and wherein a housing axis extends along a cylinder axis in the longitudinal direction, - a high-voltage contact, which electrically connects the interior to the exterior of the housing, and - a contact element, via which an electrical connection from the arresting element to the high-voltage contact is producible,
A floor screed reinforcement means for use in a non-structural floor, the reinforcement means comprising at least two reinforcing meshes each having a grid like pattern, at least one spacing means (90, 92) engaging with the reinforcing meshes for spacing apart the reinforcing meshes, the spacing means further extending from the reinforcing meshes to space, in use, a lower reinforcing mesh above a base on which the floor screed material will be laid, and further extending above an upper reinforcing mesh and providing indicator means which is at least covered by the floor screed material, wherein the spacing means is a body having a longitudinal axis and a length L, the body having end faces at its ends, the body of the spacing means having at or near its end faces one shoulder, a neck portion extending along the longitudinal axis and away from the shoulder towards the end face, the neck portion engaging with holes in the grid pattern of the reinforcement meshes, characterized by the spacing means being glued or welded to the reinforcing meshes.
Method of electrochemical utilization of carbon dioxide (CO 2), comprising the following steps: - providing a carbon dioxide electrolysis cell having a first anode space and a first cathode space, where the first anode space and the first cathode space are separated by a first membrane, where a first cathode is arranged within the first cathode space such that it separates a first cathode subspace and a second cathode subspace, where the first cathode subspace adjoins the first membrane, - guiding a first electrolyte as first catholyte into the first cathode subspace, - guiding the carbon dioxide (CO 2) into the second cathode subspace, - reducing the carbon dioxide (CO 2) to a first product gas in the second cathode subspace, - conducting the first catholyte out of the first cathode subspace and the product gas out of the second cathode subspace separately from one another, - combining the first product gas and the first catholyte downstream of the carbon dioxide electrolysis cell, - separating non-reduced carbon dioxide (CO 2) from the first product gas by means of the first catholyte as absorbent. - providing a carbon dioxide electrolysis cell having a first anode space and a first cathode space, where the first anode space and the first cathode space are separated by a first membrane, where a first cathode is arranged within the first cathode space such that it separates a first cathode subspace and a second cathode subspace, where the first cathode subspace adjoins the first membrane, - guiding a first electrolyte as first catholyte into the first cathode subspace, - guiding the carbon dioxide (CO 2) into the second cathode subspace, - reducing the carbon dioxide (CO 2) to a first product gas in the second cathode subspace, - conducting the first catholyte out of the first cathode subspace and the product gas out of the second cathode subspace separately from one another, - combining the first product gas and the first catholyte downstream of the carbon dioxide electrolysis cell, - separating non-reduced carbon dioxide (CO 2) from the first product gas by means of the first catholyte as absorbent.