mhurhangee/ep-ind-claims huggingface dataset:
A method of using a controller that controls client switches in a monitoring network having network interfaces that are coupled to a packet forwarding network and that receive tapped network packets from the packet forwarding network, the method comprising: with the controller, identifying first and second packet recorders (116, R1, R2) coupled to the monitoring network; with the controller, receiving a packet recording policy that identifies tapped network packets to be recorded; with the controller, generating network paths that forward at least a subset of the tapped network packets from the network interfaces to the first packet recorder (116, R1) through the client switches in the monitoring network for storage at the first packet recorder (116, R1); and with the controller, sending a packet request for a predetermined set of recorded network packets in parallel to both the first and second packet recorders (116, R1, R2) that instructs the first and second packet recorders (116, R1, R2) to identify the predetermined set of recorded network packets and to output the predetermined set of recorded network packets. with the controller, identifying first and second packet recorders (116, R1, R2) coupled to the monitoring network; with the controller, receiving a packet recording policy that identifies tapped network packets to be recorded; with the controller, generating network paths that forward at least a subset of the tapped network packets from the network interfaces to the first packet recorder (116, R1) through the client switches in the monitoring network for storage at the first packet recorder (116, R1); and with the controller, sending a packet request for a predetermined set of recorded network packets in parallel to both the first and second packet recorders (116, R1, R2) that instructs the first and second packet recorders (116, R1, R2) to identify the predetermined set of recorded network packets and to output the predetermined set of recorded network packets.
A press-fit prosthesis for replacing a portion of a tibia bone and adapted to form part of a complete knee replacement system comprising: a first side; a second side opposite the first side, the second side operable to engage the bone, the second side including a medial position, a lateral position, and a center position between the medial position and the lateral position; a first resorbable fixation member and a second resorbable fixation member coupled to the second side at the medial position and offset from the center position; and a third resorbable fixation member and a fourth resorbable fixation member coupled to the second side at the lateral position and offset from the center position; wherein the first, the second, the third, and the fourth resorbable fixation members do not extend through to the first side and substantially resist movement of the prosthesis relative to the bone; wherein the center position is without a fixation post; wherein each of the first, the second, the third, and the fourth resorbable fixation members resorb at a rate that enables bone in-growth to fixedly couple the prosthesis to the bone; and wherein the first side is without bores and the resorbable fixation members extend from only the second side. a first side; a second side opposite the first side, the second side operable to engage the bone, the second side including a medial position, a lateral position, and a center position between the medial position and the lateral position; a first resorbable fixation member and a second resorbable fixation member coupled to the second side at the medial position and offset from the center position; and a third resorbable fixation member and a fourth resorbable fixation member coupled to the second side at the lateral position and offset from the center position; wherein the first, the second, the third, and the fourth resorbable fixation members do not extend through to the first side and substantially resist movement of the prosthesis relative to the bone; wherein the center position is without a fixation post; wherein each of the first, the second, the third, and the fourth resorbable fixation members resorb at a rate that enables bone in-growth to fixedly couple the prosthesis to the bone; and wherein the first side is without bores and the resorbable fixation members extend from only the second side.
A process for producing polyolefin particles from a polyolefin composition by Particle from Gas Saturated Solution process, comprising the steps of: a) providing a melted composition of a polyolefin and b) providing particles from the melted composition by: b1) mixing a first flow of a supercritical fluid in the melted composition in a pressure vessel to obtain a solution saturated with the supercritical fluid and b2) passing the solution from the pressure vessel through a throttling device to a spraying tower to expand the solution to obtain the polyolefin particles in the spraying tower, wherein a second flow of a supercritical fluid is injected in the throttling device, wherein the supercritical fluid is a supercritical fluid of a substance selected from the group consisting of CO 2, NH 3, H 2 O, N 2 O, CH 4, ethane, propane, propylene, n-butane, i-butane, n-pentane, benzene, methanol, ethanol, isopropanol, isobutanol, chlorotrifluoromethane, monofluoromethane, 1,1,1,2-Tetrafluoroethane, toluene, pyridine, cyclohexane, cyclohexanol, o-xylene, dimethyl ether and SF 6 and combinations thereof. a) providing a melted composition of a polyolefin and b) providing particles from the melted composition by: b1) mixing a first flow of a supercritical fluid in the melted composition in a pressure vessel to obtain a solution saturated with the supercritical fluid and b2) passing the solution from the pressure vessel through a throttling device to a spraying tower to expand the solution to obtain the polyolefin particles in the spraying tower, wherein a second flow of a supercritical fluid is injected in the throttling device, wherein the supercritical fluid is a supercritical fluid of a substance selected from the group consisting of CO 2, NH 3, H 2 O, N 2 O, CH 4, ethane, propane, propylene, n-butane, i-butane, n-pentane, benzene, methanol, ethanol, isopropanol, isobutanol, chlorotrifluoromethane, monofluoromethane, 1,1,1,2-Tetrafluoroethane, toluene, pyridine, cyclohexane, cyclohexanol, o-xylene, dimethyl ether and SF 6 and combinations thereof. b1) mixing a first flow of a supercritical fluid in the melted composition in a pressure vessel to obtain a solution saturated with the supercritical fluid and b2) passing the solution from the pressure vessel through a throttling device to a spraying tower to expand the solution to obtain the polyolefin particles in the spraying tower, wherein a second flow of a supercritical fluid is injected in the throttling device, wherein the supercritical fluid is a supercritical fluid of a substance selected from the group consisting of CO 2, NH 3, H 2 O, N 2 O, CH 4, ethane, propane, propylene, n-butane, i-butane, n-pentane, benzene, methanol, ethanol, isopropanol, isobutanol, chlorotrifluoromethane, monofluoromethane, 1,1,1,2-Tetrafluoroethane, toluene, pyridine, cyclohexane, cyclohexanol, o-xylene, dimethyl ether and SF 6 and combinations thereof.
A method for initiating a blind handover of a terminal in a wireless communications system, the terminal being served by a first cell using a first frequency band and a first radio access technology, wherein the wireless communications system employs a method for dynamically changing coverage in at least one of the first cell and a second cell, the method comprising: - estimating the coverage in the second cell, wherein at least one of a second frequency band and a second radio access technology of the second cell differs from the first frequency band and the first radio access technology, wherein the estimating the coverage in the second cell comprises estimating a link quality metric at the terminal in the second cell, and wherein the link quality metric at the terminal in the second cell is estimated by using: - a spatial channel estimate in the first cell based on uplink measurements in the first cell on an uplink frequency band of the first cell, the spatial channel estimate being normalized with respect to an uplink beamformer used in the first cell, and - a cell-shaping vector used in the second cell, and - initiating the blind handover for the terminal to the second cell only if the estimated coverage in the second cell meets a criterion. - estimating the coverage in the second cell, wherein at least one of a second frequency band and a second radio access technology of the second cell differs from the first frequency band and the first radio access technology, wherein the estimating the coverage in the second cell comprises estimating a link quality metric at the terminal in the second cell, and wherein the link quality metric at the terminal in the second cell is estimated by using: - a spatial channel estimate in the first cell based on uplink measurements in the first cell on an uplink frequency band of the first cell, the spatial channel estimate being normalized with respect to an uplink beamformer used in the first cell, and - a cell-shaping vector used in the second cell, and - a spatial channel estimate in the first cell based on uplink measurements in the first cell on an uplink frequency band of the first cell, the spatial channel estimate being normalized with respect to an uplink beamformer used in the first cell, and - a cell-shaping vector used in the second cell, and - initiating the blind handover for the terminal to the second cell only if the estimated coverage in the second cell meets a criterion.
A method for wireless communication by a base station, comprising: receiving a paging indication and at least an indication of a limited amount of data targeted for a user equipment, UE, that is not in a connected state with the base station; transmitting a paging message to the UE with at least one of the data or an indication of the data, wherein the paging message includes an indication of whether the data is to be acknowledged or not; and monitoring for a physical random access channel, PRACH, transmission from the UE as an acknowledgment of receipt of the data. receiving a paging indication and at least an indication of a limited amount of data targeted for a user equipment, UE, that is not in a connected state with the base station; transmitting a paging message to the UE with at least one of the data or an indication of the data, wherein the paging message includes an indication of whether the data is to be acknowledged or not; and monitoring for a physical random access channel, PRACH, transmission from the UE as an acknowledgment of receipt of the data.
Safety brake device for a power tool for braking a machining tool that is driven via an output unit, in particular an output shaft, by means of an electric motor, having at least one brake device which is intended to, during a braking operation, brake, in particular stop, a rotation of the output unit, having a sensor device and having a processing unit, wherein the brake device has at least a first braking stage and a second braking stage, wherein the first braking stage of the brake device is configured as an electronic braking stage, wherein the second braking stage of the brake device is configured as a mechanical braking stage with at least one mechanical braking element, wherein the processing unit is intended to, in a braking operation, apply the first braking stage as soon as an approach of a user to the machining tool is identified or detected by a sensor device, wherein, in this case, the rotation of the output unit is braked, in particular stopped, substantially by means of or through application of the first braking stage of the brake device, characterized in that the brake device is furthermore intended to, in a braking operation, apply the second braking stage as soon as a further approach of a user to the machining tool is identified or detected by the sensor device or, in particular, contact with the machining tool by a body part of the user is detected, wherein, in this case, the rotation of the output unit is braked, in particular stopped, substantially by means of or through application of the second braking stage of the brake device. the brake device has at least a first braking stage and a second braking stage, wherein the first braking stage of the brake device is configured as an electronic braking stage, wherein the second braking stage of the brake device is configured as a mechanical braking stage with at least one mechanical braking element, wherein the processing unit is intended to, in a braking operation, apply the first braking stage as soon as an approach of a user to the machining tool is identified or detected by a sensor device, wherein, in this case, the rotation of the output unit is braked, in particular stopped, substantially by means of or through application of the first braking stage of the brake device, characterized in that the brake device is furthermore intended to, in a braking operation, apply the second braking stage as soon as a further approach of a user to the machining tool is identified or detected by the sensor device or, in particular, contact with the machining tool by a body part of the user is detected, wherein, in this case, the rotation of the output unit is braked, in particular stopped, substantially by means of or through application of the second braking stage of the brake device.
A bow control apparatus of a light scanning unit comprising: a first support unit disposed on a first side of a reflecting element (263, 163A, 163B, 163C, 163D) and a second support unit disposed on a second side of the reflecting element to support the reflecting element; and a first pressure unit disposed on a first side of the first support unit and a second pressure unit disposed on a second side of the first support unit to pressure the reflecting element, the first and second pressure units being disposed at one end of the reflecting element including first and second adjusting elements, respectively, to adjust the amount of pressure to concavely and convexly bow the reflecting element to correct a bow of a scanning line formed on a photoconductor (210, 210A, 210B, 210C, 210D). a first support unit disposed on a first side of a reflecting element (263, 163A, 163B, 163C, 163D) and a second support unit disposed on a second side of the reflecting element to support the reflecting element; and a first pressure unit disposed on a first side of the first support unit and a second pressure unit disposed on a second side of the first support unit to pressure the reflecting element, the first and second pressure units being disposed at one end of the reflecting element including first and second adjusting elements, respectively, to adjust the amount of pressure to concavely and convexly bow the reflecting element to correct a bow of a scanning line formed on a photoconductor (210, 210A, 210B, 210C, 210D).
A terminal housing, comprising: a rear cover; a radio frequency module; and an antenna array; wherein the radio frequency module is coupled to the antenna array; and the rear cover comprises a first area and a second area, wherein the second area is different from the first area, and the first area is coupled to the second area using a first insulating material; and the first area comprises a plurality of antenna array elements, each of the plurality of antenna array elements is made of conductive material; characterized in that, any two adjacent antenna array elements are coupled to each other using a second insulating material provided between the two adjacent antenna array elements, and the plurality of antenna array elements form the antenna array, wherein the antenna array is formed on the rear cover, wherein the rear cover is made of metal material, the first insulating material is formed on the rear cover to separate the rear cover into the first area and the second area, the first area and the second area being insulated and disconnected from each other via the first insulating material, wherein the second insulating material is formed in the first area of the rear cover, to separate the first area into the plurality of antenna array elements, the plurality of antenna array elements being insulated and disconnected from each other via the second insulating material; wherein the first insulating material and the second insulating material are formed on the rear cover by an injection molding process. a rear cover; a radio frequency module; and an antenna array; wherein the radio frequency module is coupled to the antenna array; and the rear cover comprises a first area and a second area, wherein the second area is different from the first area, and the first area is coupled to the second area using a first insulating material; and the first area comprises a plurality of antenna array elements, each of the plurality of antenna array elements is made of conductive material; characterized in that, any two adjacent antenna array elements are coupled to each other using a second insulating material provided between the two adjacent antenna array elements, and the plurality of antenna array elements form the antenna array, wherein the antenna array is formed on the rear cover, wherein the rear cover is made of metal material, the first insulating material is formed on the rear cover to separate the rear cover into the first area and the second area, the first area and the second area being insulated and disconnected from each other via the first insulating material, wherein the second insulating material is formed in the first area of the rear cover, to separate the first area into the plurality of antenna array elements, the plurality of antenna array elements being insulated and disconnected from each other via the second insulating material; wherein the first insulating material and the second insulating material are formed on the rear cover by an injection molding process.
Braking system for at least one railway vehicle, wherein said braking system is arranged to provide to at least one trackside signaling system, or to at least one on-board vehicle signaling system, or to both at least one trackside signaling system and at least one on-board vehicle signaling system, information regarding respective factors affecting braking of the railway vehicle; wherein said information regarding respective factors affecting the braking of the railway vehicle includes: - information regarding a correction factor to be applied to a predefined nominal deceleration value of the at least one railway vehicle in conditions of low adhesion, k wet; wherein said information regarding factors affecting the braking of the railway vehicle is determined in real time by said braking system. wherein said information regarding respective factors affecting the braking of the railway vehicle includes: - information regarding a correction factor to be applied to a predefined nominal deceleration value of the at least one railway vehicle in conditions of low adhesion, k wet; - information regarding a correction factor to be applied to a predefined nominal deceleration value of the at least one railway vehicle in conditions of low adhesion, k wet; wherein said information regarding factors affecting the braking of the railway vehicle is determined in real time by said braking system.
Power-Off-Protection Type of Safety Control Double Valve suitable to be Applied to Pressing Machines, comprising a parallel double valve composed of a compressed air intake, a compressed air output vent and exhaust vent directly parallel to two single solenoids or cross-flow double valve formed parallel by cross imaging, characterized by a safety valve close to the compressed air ouput vent (OUT, 60) of the parallel double valve or cross-flow double valve, at least one aero-electric signal converter at a flow passage from a lower valve opening of the parallel double valve or cross-flow double valve to compressed air output vent, a monitor-control-drive circuit close to said safety control double valve or in a control circuit relative to controlled pressing machine corresponding to safety control double valve wherein in said safety control double valve the compressed air output vent (OUT, 60) of parallel double valve or cross-flow double valve is connected to an intake located at one end of the safety valve; the other end of the safety valve is connected to the exhaust valve vent, the exhaust valve vent being connected to a safety valve vent, said safety valve being a 2-position 2-way normal open solenoid valve, said aero-electric signal converter being placed at the flow passage from said lower valve opening of said parallel double valve or cross-flow double valve to compressed air output vent (OUT, 60) and being electrically connected to said monitor-control-drive circuit, said single type of solenoid valve and safety valve including a pilot valve, which is mounted on a pilot valve seat, and a master valve mounted beneath the pilot valve seat, said compressed air output vent of safety control double valve being located at one side of the safety valve, the compressed air intake of the safety control double valve being located at the other side relative to the other side of compressed air output vent.
A method for determining a presence of fluid flowing in an annulus between a lateral surface of a wellbore and a conduit disposed in the wellbore, comprising: measuring directional noise components at a plurality of locations in the wellbore using one or more multi-component geophones, wherein the measuring comprises measuring a vertical noise component and at least one horizontal noise component at each of the locations; and determining the presence of the fluid in the annulus based on the measured directional noise components, wherein determining the presence of the fluid comprises detecting a higher horizontal noise component measured at one of the locations compared to corresponding horizontal noise components measured at other locations in the plurality of locations. measuring directional noise components at a plurality of locations in the wellbore using one or more multi-component geophones, wherein the measuring comprises measuring a vertical noise component and at least one horizontal noise component at each of the locations; and determining the presence of the fluid in the annulus based on the measured directional noise components, wherein determining the presence of the fluid comprises detecting a higher horizontal noise component measured at one of the locations compared to corresponding horizontal noise components measured at other locations in the plurality of locations.
A single serve capsule for producing a coffee beverage, wherein the single serve capsule has a capsule base body in which a textile fabric and a beverage substance are arranged, wherein the beverage substance is provided for storage in the single serve capsule and for extraction in the single serve capsule through the textile fabric by means of pressurized hot water, wherein the beverage substance is present in the single serve capsule in an amount in the range from 1 to 20 g; wherein the beverage substance is substantially pulverulent, comprises roasted, ground coffee which in the dry state has a D[4,3] value in the range from 500 to 600 μm; wherein the textile fabric has a weight per unit area in the range from 900 g/m 2 to 1400 g/m 2; wherein the textile fabric a porous-cascade-type felt; and wherein the capsule base is partially open.
A method for producing an electrode catalyst for a fuel cell comprising carrier particles that support gold-modified platinum or platinum alloys comprising a step of gold reduction comprising adding carrier particles that support platinum or platinum alloys, a reducing agent, and a gold precursor to a liquid medium and mixing the same, wherein the step of gold reduction comprises adding the reducing agent to adjust the ORP value i.e., an oxidation-reduction potential with reference to the silver-silver chloride electrode of the liquid medium to -630 to +230 mV upon completion of addition.