mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, from an agent at an endpoint, a deferrable memory write, DMWr, request in a transaction layer packet, TLP, the agent being a hardware or software agent, wherein the TLP comprises a Peripheral Component Interconnect Express, PCIe, TLP type field encoding to indicate the DMWr request; determining, at the endpoint, whether the DMWr request can be successfully completed; and if the DMWr request cannot be successfully completed, returning, by the endpoint, a request retry status, RRS, completion status to the agent, and if the DMWr request can be successfully completed, returning, by the endpoint, a successful completion, SC, completion status to the agent, wherein the DMWr request is to send data over PCIe, the endpoint is to choose to carry out the DMWr request by returning SC completion status or defer the DMWr request by returning the RRS completion status, and wherein determining that the TLP comprises a DMWr request comprises reading a TLP format and type field encoding, the format field encoding comprises one of 010 or 011 and the type field comprises 11011. receiving, from an agent at an endpoint, a deferrable memory write, DMWr, request in a transaction layer packet, TLP, the agent being a hardware or software agent, wherein the TLP comprises a Peripheral Component Interconnect Express, PCIe, TLP type field encoding to indicate the DMWr request; determining, at the endpoint, whether the DMWr request can be successfully completed; and if the DMWr request cannot be successfully completed, returning, by the endpoint, a request retry status, RRS, completion status to the agent, and if the DMWr request can be successfully completed, returning, by the endpoint, a successful completion, SC, completion status to the agent, wherein the DMWr request is to send data over PCIe, the endpoint is to choose to carry out the DMWr request by returning SC completion status or defer the DMWr request by returning the RRS completion status, and wherein determining that the TLP comprises a DMWr request comprises reading a TLP format and type field encoding, the format field encoding comprises one of 010 or 011 and the type field comprises 11011.
A polymer particle having a columnar form having end surfaces (22a, 23a) and a side surface, wherein the particle comprises at least one perimeter area (22b; 23b) that is substantially orthogonal to and continuous with one of the end surfaces (22a, 23a) via a curved surface so as to partially cover the side surface.
An equipment for preparing, exposing and retailing foodstuffs subjected to thermal treatments and mixing or stirring, comprising at least one not removable cylindrical receptacle having a base, a removable impeller arranged in every cylindrical receptacle, a drive shaft for the impeller and at least one coil for the passage of the thermal treatment fluids (25, 26), characterised in that at least one drain duct is axially arranged inside the drive shaft; a pulley is mounted on the drive shaft for rotating the drive shaft and the impeller; furthermore insulating means (60, 61, 100) are interposed between the impeller and the base of each cylindrical receptacle as well as in the portion between the drive shaft and the draining collector for avoiding product leakages.
A wireless reception diversity circuit, comprising: a first receive path; a second receive path; a third receive path; a first frequency synthesizing circuit (402 0) configured to generate a first local oscillating signal having a first frequency, wherein the first local oscillating signal is connected with a first mixing circuit in the first receive path and with a second mixing circuit in the second receive path; and a second frequency synthesizing circuit (402 1) configured to generate a second local oscillating signal having a second frequency equal to the first frequency, wherein the second local oscillating signal is connected with a third mixing circuit in the third receive path wherein the first, second and third mixing circuits are configured to mix the signals on the respective receive path with the same first frequency to enable at least three way diversity reception, wherein each of the first and second frequency synthesizing circuits comprises a different phase-locked loop, PLL. a first receive path; a second receive path; a third receive path; a first frequency synthesizing circuit (402 0) configured to generate a first local oscillating signal having a first frequency, wherein the first local oscillating signal is connected with a first mixing circuit in the first receive path and with a second mixing circuit in the second receive path; and a second frequency synthesizing circuit (402 1) configured to generate a second local oscillating signal having a second frequency equal to the first frequency, wherein the second local oscillating signal is connected with a third mixing circuit in the third receive path wherein the first, second and third mixing circuits are configured to mix the signals on the respective receive path with the same first frequency to enable at least three way diversity reception, wherein each of the first and second frequency synthesizing circuits comprises a different phase-locked loop, PLL.
A Centella asiatica extract for use in preventing, ameliorating, or treating a retinal nerve cell damage syndrome caused by oxidative stress, characterized in that the Centella asiatica extract is a 40%-60% aqueous ethanol extract.
A device for handling objects comprising a) at least one inflatable air chamber b) a device for gripping objects secured to said air chamber (12, characterized in that said air chamber comprises at least two textile fabric layers (O, U). a) at least one inflatable air chamber b) a device for gripping objects secured to said air chamber (12,
Method for processing biomass material comprising lignocellulose derived from plants, comprising the steps of: a. pre treating said biomass material with an aqueous solution of acid or base; b. subsequently passaging super heated steam through said biomass material by leading it through a chamber containing the biomass material, wherein the super heated steam is applied until the biomass material warms up to the condensation temperature of the steam at the given pressure and then continued for 1 to 10 minutes, and, wherein the water activity of the of the super heated steam used as processing medium in step b) is the actual absolute pressure of the SHS divided by the pressure that saturated steam would have at that actual temperature of the SHS, as determined in the description, is controlled by means of temperature and pressure of the super heated steam to be less than 1. a. pre treating said biomass material with an aqueous solution of acid or base; b. subsequently passaging super heated steam through said biomass material by leading it through a chamber containing the biomass material, wherein the super heated steam is applied until the biomass material warms up to the condensation temperature of the steam at the given pressure and then continued for 1 to 10 minutes, and,
An apparatus, comprising: a head transducer configured to interact with a magnetic recording medium; a first sensor (105, R1) having a temperature coefficient of resistance and configured to produce a first sensor signal; a second sensor (106, R2) having a TCR and configured to produce a second sensor signal; one of the first and second sensors situated at or near a close point of the head transducer in relation to the magnetic recording medium, and the other of the first and second sensors spaced away from the close point; and circuitry configured to combine the first and second sensor signals and produce a combined sensor signal indicative of one or both of a change in head-medium spacing and head-medium contact; wherein the first sensor comprises one of a positive TCR and a negative TCR; and the second sensor comprises the other of the positive TCR and the negative TCR; characterized in that: the first and second sensors are connected in series or in parallel and are connected to only two electrical connection pads (A, B) in total; and the circuitry is configured to one or both of measure the change in head-medium spacing and detect head-medium contact using the combined sensor signal without addition of an extra electrical connection pad. a head transducer configured to interact with a magnetic recording medium; a first sensor (105, R1) having a temperature coefficient of resistance and configured to produce a first sensor signal; a second sensor (106, R2) having a TCR and configured to produce a second sensor signal; one of the first and second sensors situated at or near a close point of the head transducer in relation to the magnetic recording medium, and the other of the first and second sensors spaced away from the close point; and circuitry configured to combine the first and second sensor signals and produce a combined sensor signal indicative of one or both of a change in head-medium spacing and head-medium contact; wherein the first sensor comprises one of a positive TCR and a negative TCR; and the second sensor comprises the other of the positive TCR and the negative TCR; characterized in that: the first and second sensors are connected in series or in parallel and are connected to only two electrical connection pads (A, B) in total; and the circuitry is configured to one or both of measure the change in head-medium spacing and detect head-medium contact using the combined sensor signal without addition of an extra electrical connection pad. the first and second sensors are connected in series or in parallel and are connected to only two electrical connection pads (A, B) in total; and the circuitry is configured to one or both of measure the change in head-medium spacing and detect head-medium contact using the combined sensor signal without addition of an extra electrical connection pad.
A method of ontology-driven querying or programming of at least one sensor, the method comprising: generating at a query origin a query or command for execution in relation to the at least one sensor; transmitting the query or command to an ontology transformer over a first network; classifying the query or command according to an ontology and one or more predetermined capabilities of the at least one sensor; processing the classified query or command to select one or more code fragments suitable to execute the query or command, wherein the one or more code fragments are stored in a memory accessible to the ontology transformer based on the classified query or command; generating a transformed executable query or program based on the classified query or command using the one or more code fragments, wherein said generating comprises completing the code fragments according to parameters specified in the query or command; transmitting the transformed executable query or program to at least one sensor node in communication with the at least one sensor for execution of the transformed executable query or program by the at least one sensor node in relation to the at least one sensor; receiving from the at least one sensor node at least one result of the executable query or program; and returning the at least one result. generating at a query origin a query or command for execution in relation to the at least one sensor; transmitting the query or command to an ontology transformer over a first network; classifying the query or command according to an ontology and one or more predetermined capabilities of the at least one sensor; processing the classified query or command to select one or more code fragments suitable to execute the query or command, wherein the one or more code fragments are stored in a memory accessible to the ontology transformer based on the classified query or command; generating a transformed executable query or program based on the classified query or command using the one or more code fragments, wherein said generating comprises completing the code fragments according to parameters specified in the query or command; transmitting the transformed executable query or program to at least one sensor node in communication with the at least one sensor for execution of the transformed executable query or program by the at least one sensor node in relation to the at least one sensor; receiving from the at least one sensor node at least one result of the executable query or program; and returning the at least one result.
Torsion filtration mechanism for a torque transmission device, in particular for a motor vehicle, in particular for a clutch device, the torsion filtration mechanism comprising: - a first rotating member able to rotate about an axis of revolution of the torsion filtration mechanism, - a second rotating member able to rotate about the axis of revolution and to oscillate with respect to the first rotating member, - at least one cam track borne by one of the first and second rotating members, the cam track being able to rotate about the axis of revolution with the rotating member bearing the cam track and coupled elastically to the rotating member bearing the cam track so as to have a degree of freedom of movement with respect to the rotating member bearing the cam track, and - at least one cam follower associated with the cam track and borne by the other of the first and second rotating members, the cam follower being able to travel over the cam track between a backward end of the cam track and a direct end of the cam track while bringing about a variable movement of the cam track with respect to the rotating member bearing the cam track, characterized in that the cam track has, in a section plane perpendicular to the axis of revolution, a profile comprising a plurality of circular arcs (A0, A1, A2, A3, A4) adjacent in pairs and having a point of intersection in pairs, the profile being such that at least two adjacent circular arcs among the circular arcs (A0, A1, A2, A3, A4) have different, finite or infinite, radii of curvature and coincident tangents at the point of intersection. - a first rotating member able to rotate about an axis of revolution of the torsion filtration mechanism, - a second rotating member able to rotate about the axis of revolution and to oscillate with respect to the first rotating member, - at least one cam track borne by one of the first and second rotating members, the cam track being able to rotate about the axis of revolution with the rotating member bearing the cam track and coupled elastically to the rotating member bearing the cam track so as to have a degree of freedom of movement with respect to the rotating member bearing the cam track, and - at least one cam follower associated with the cam track and borne by the other of the first and second rotating members, the cam follower being able to travel over the cam track between a backward end of the cam track and a direct end of the cam track while bringing about a variable movement of the cam track with respect to the rotating member bearing the cam track,
A method for wireless communication performed by a user equipment, UE, comprising: receiving a channel state information, CSI, reporting configuration from a base station, the CSI including channel quality information, CQI, and precoder matrix indicator, PMI, feedback; determining a configured subband size for the CQI feedback and a number of frequency domain, FD, units configured for the PMI feedback corresponding to the subband size for the CQI feedback, wherein the configured subband size for the CQI feedback is an integer multiple R of an FD unit size for the PMI feedback; and calculating the CQI feedback for CQI subbands based on at least a portion of the corresponding number of FD units for the PMI feedback, the portion of the number of FD units being based on alignment of the CQI subbands and the number of FD units for the PMI feedback, and transmitting a CSI report to the base station containing the calculated CQI feedback, the method characterized in that: at least one of the CQI subbands is aligned with R' FD units less than R FD units of the number of FD units for the PMI feedback. receiving a channel state information, CSI, reporting configuration from a base station, the CSI including channel quality information, CQI, and precoder matrix indicator, PMI, feedback; determining a configured subband size for the CQI feedback and a number of frequency domain, FD, units configured for the PMI feedback corresponding to the subband size for the CQI feedback, wherein the configured subband size for the CQI feedback is an integer multiple R of an FD unit size for the PMI feedback; and calculating the CQI feedback for CQI subbands based on at least a portion of the corresponding number of FD units for the PMI feedback, the portion of the number of FD units being based on alignment of the CQI subbands and the number of FD units for the PMI feedback, and transmitting a CSI report to the base station containing the calculated CQI feedback, the method characterized in that: at least one of the CQI subbands is aligned with R' FD units less than R FD units of the number of FD units for the PMI feedback.
Corrugated cardboard plant for producing corrugated cardboard, comprising a) at least one device (4, 16) for producing a respective corrugated cardboard web (5, 17) laminated on one side, from a respective cover web and a respective material web; b) a lamination web dispensing device for dispensing a lamination web; c) a device for producing a corrugated cardboard web laminated on two sides from the at least one corrugated cardboard web (5, 17) laminated on one side and from the lamination web, said device for producing a corrugated cardboard web laminated on two sides being disposed downstream of the lamination web dispensing device and of the at least one device (4, 16) for producing a respective corrugated cardboard web (5, 17) laminated on one side, and having at least one compression section; d) a printing assembly having at least one digital printing device for printing the corrugated cardboard web laminated on two sides, said printing assembly for producing a corrugated cardboard web laminated on two sides being disposed downstream of the device for producing a corrugated cardboard web laminated on two sides; and e) a transverse cutting device disposed downstream of the printing assembly, for transversely cutting the corrugated cardboard web laminated on two sides, while forming corrugated cardboard sheets, characterized by f) a traction assembly for influencing a web tension of the corrugated cardboard web laminated on two sides in the printing assembly, said traction assembly being disposed so as to be adjacent to the at least one digital printing device. a) at least one device (4, 16) for producing a respective corrugated cardboard web (5, 17) laminated on one side, from a respective cover web and a respective material web; b) a lamination web dispensing device for dispensing a lamination web; c) a device for producing a corrugated cardboard web laminated on two sides from the at least one corrugated cardboard web (5, 17) laminated on one side and from the lamination web, said device for producing a corrugated cardboard web laminated on two sides being disposed downstream of the lamination web dispensing device and of the at least one device (4, 16) for producing a respective corrugated cardboard web (5, 17) laminated on one side, and having at least one compression section; d) a printing assembly having at least one digital printing device for printing the corrugated cardboard web laminated on two sides, said printing assembly for producing a corrugated cardboard web laminated on two sides being disposed downstream of the device for producing a corrugated cardboard web laminated on two sides; and e) a transverse cutting device disposed downstream of the printing assembly, for transversely cutting the corrugated cardboard web laminated on two sides, while forming corrugated cardboard sheets, characterized by f) a traction assembly for influencing a web tension of the corrugated cardboard web laminated on two sides in the printing assembly, said traction assembly being disposed so as to be adjacent to the at least one digital printing device.
Abed, comprising: a bed body (110, 210) having a space for a user to rest; a monitoring device connected to the bed body (110, 210), the monitoring device comprising a pressure detecting mechanism (122, 221), a signal processing unit electrically coupled to the pressure detecting mechanism (122, 221), and a monitoring unit electrically coupled to the signal processing unit; wherein the pressure detecting mechanism (122, 221) is configured to detect pressure variations of the bed body (110, 210), generate pressure data, and transmit the pressure data to the signal processing unit, the signal processing unit is configured to process the pressure data and generate processed signal data, the monitoring unit is configured to monitor the processed signal data, characterized in that the pressure detecting mechanism is a single-leg pressure detecting mechanism, including a supporting single-leg (140, 2211); a bracket is provided below the supporting single-leg (140, 2211) to enable the supporting single-leg (140, 2211) to stably support the bed body (110, 210), the supporting single-leg (140, 2211) is provided with a pressure sensor electrically coupled to the signal processing unit, and the pressure sensor is located at a junction between the supporting single-leg (140, 2211) of the single-leg pressure detecting mechanism and the bed body (110, 210), wherein the pressure sensor is used to detect the pressure difference of the bed body (110, 210) in the loaded state and in the unloaded state, and the pressure variation data thereof during the rest of the user. a bed body (110, 210) having a space for a user to rest; a monitoring device connected to the bed body (110, 210), the monitoring device comprising a pressure detecting mechanism (122, 221), a signal processing unit electrically coupled to the pressure detecting mechanism (122, 221), and a monitoring unit electrically coupled to the signal processing unit; wherein the pressure detecting mechanism (122, 221) is configured to detect pressure variations of the bed body (110, 210), generate pressure data, and transmit the pressure data to the signal processing unit, the signal processing unit is configured to process the pressure data and generate processed signal data, the monitoring unit is configured to monitor the processed signal data, characterized in that the pressure detecting mechanism is a single-leg pressure detecting mechanism, including a supporting single-leg (140, 2211); a bracket is provided below the supporting single-leg (140, 2211) to enable the supporting single-leg (140, 2211) to stably support the bed body (110, 210), the supporting single-leg (140, 2211) is provided with a pressure sensor electrically coupled to the signal processing unit, and the pressure sensor is located at a junction between the supporting single-leg (140, 2211) of the single-leg pressure detecting mechanism and the bed body (110, 210), wherein the pressure sensor is used to detect the pressure difference of the bed body (110, 210) in the loaded state and in the unloaded state, and the pressure variation data thereof during the rest of the user.