mhurhangee/ep-ind-claims huggingface dataset:
A PCI express link energy management method, characterized by comprising: obtaining, by a first device, adjustment information for performing adjustment processing on a current rate and/or bit width of a PCI express link; stopping, by the first device, data sending, and clearing a master enable bit of a configuration space command register of a second device at an opposite end of the link, so that the second device stops data sending after current data sending is finished; performing, by the first device, adjustment processing on the rate and/or bit width of the link according to the adjustment information; and resuming, by the first device, the data sending, and resetting the master enable bit, so that the first device and the second device send and receive data again at a rate and/or bit width that is obtained after the adjustment processing. obtaining, by a first device, adjustment information for performing adjustment processing on a current rate and/or bit width of a PCI express link; stopping, by the first device, data sending, and clearing a master enable bit of a configuration space command register of a second device at an opposite end of the link, so that the second device stops data sending after current data sending is finished; performing, by the first device, adjustment processing on the rate and/or bit width of the link according to the adjustment information; and resuming, by the first device, the data sending, and resetting the master enable bit, so that the first device and the second device send and receive data again at a rate and/or bit width that is obtained after the adjustment processing.
A method for the manufacture of a metallic substrate provided with a passivation which is free of chromium VI and cobalt, by applying (a) a first acidic passivation, wherein for the manufacture of the first acidic passivation an aqueous acidic composition is applied to the substrate, the composition containing a chromium compound which is selected from the group consisting of chromium sulphate, chromium hydroxide, chromium dihydrogen phosphate, chromium chloride, chromium nitrate, sodium chromium sulphate, potassium chromium sulphate and chromium salts of organic acids, wherein the composition contains the chromium compound in quantities of at least 0.05 g/l, based on the aqueous acidic composition, and a phosphorous acid and/or the derivatives thereof in quantities of 0.5 % by weight to 3 % by weight, based on the aqueous acidic composition, and (b) a second alkaline passivation to the metallic substrate, wherein for the manufacture of the second alkaline passivation an aqueous alkaline composition is used, which contains silane-modified and/or siloxane-modified silicates. (a) a first acidic passivation, wherein for the manufacture of the first acidic passivation an aqueous acidic composition is applied to the substrate, the composition containing a chromium compound which is selected from the group consisting of chromium sulphate, chromium hydroxide, chromium dihydrogen phosphate, chromium chloride, chromium nitrate, sodium chromium sulphate, potassium chromium sulphate and chromium salts of organic acids, wherein the composition contains the chromium compound in quantities of at least 0.05 g/l, based on the aqueous acidic composition, and a phosphorous acid and/or the derivatives thereof in quantities of 0.5 % by weight to 3 % by weight, based on the aqueous acidic composition, and (b) a second alkaline passivation to the metallic substrate, wherein for the manufacture of the second alkaline passivation an aqueous alkaline composition is used, which contains silane-modified and/or siloxane-modified silicates.
A plastic optical component comprising a benzophenone compound of formula: wherein R 1 and R 2 each independently are C 1-4 -alkyl; and an addition polymer obtained by radical polymerization of a monomer; wherein - the benzophenone compound is present in an amount of 0.5-3.0 parts by mass of per 100 parts by mass of a resin component forming the optical component: - the cutting ratio of light having a wavelength of 410 nm is ≥ 50%; and - the light transmittance in the wavelength range of 400-700 nm is ≥ 70%. - the benzophenone compound is present in an amount of 0.5-3.0 parts by mass of per 100 parts by mass of a resin component forming the optical component: - the cutting ratio of light having a wavelength of 410 nm is ≥ 50%; and - the light transmittance in the wavelength range of 400-700 nm is ≥ 70%.
A 3D printer comprising an ink tank for storing an ink comprising magnetic particles; an injection nozzle connected to the ink tank and for injecting the ink; a substrate on which the injected ink is deposited; a heating unit provided so as to heat the ink coated onto the substrate by means of induction heating and to be positioned behind the injection nozzle based on the direction of carriage of the injection nozzle; a carriage unit for carrying the injection nozzle and the heating unit; and a control unit for controlling the heating unit and the carriage unit, wherein the heating unit comprises two coil structures (151, 152) disposed on both sides of the rear with respect to the injection nozzle, and wherein the heating unit is provided to apply an external alternating electromagnetic field to the ink positioned in the space between the two coil structures (151, 152).
A Multimedia Broadcast multicast service Single Frequency Network, MBSFN, configuration method, wherein the method comprises: receiving, by user equipment, UE, MBSFN configuration information, wherein the MBSFN configuration information indicates a sub frame configuration of an MBSFN subframe that bears a physical multicast channel, PMCH, and the subframe configuration comprises a cyclic prefix, CP, type and a reference signal pattern; and determining, by the UE, the subframe configuration of the MBSFN subframe according to the MBSFN configuration information, wherein the CP type comprises a normal CP and another CP, and a length of the another CP is less than a length of the normal CP and wherein the subframe configuration of the MBSFN subframe comprises: in each physical resource block, PRB, pair, the reference signal pattern comprises n reference signal resource elements REs, wherein n is a positive integer less than 18. receiving, by user equipment, UE, MBSFN configuration information, wherein the MBSFN configuration information indicates a sub frame configuration of an MBSFN subframe that bears a physical multicast channel, PMCH, and the subframe configuration comprises a cyclic prefix, CP, type and a reference signal pattern; and determining, by the UE, the subframe configuration of the MBSFN subframe according to the MBSFN configuration information, wherein the CP type comprises a normal CP and another CP, and a length of the another CP is less than a length of the normal CP and wherein the subframe configuration of the MBSFN subframe comprises: in each physical resource block, PRB, pair, the reference signal pattern comprises n reference signal resource elements REs, wherein n is a positive integer less than 18.
A reciprocating piston compressor comprising: a housing; first and second intake manifolds (42A,42B) disposed at the housing for segregating inlet flow into the compressor; first and second reciprocating piston compression units both disposed at the housing and configured to receive flow from the first and second intake manifolds (42A,42B), respectively; and an outlet manifold for collecting and distributing compressed refrigerant from the first and second compression units; characterised by: a common intake line for connecting to a discharge of a heat exchanger and including a first split line extending into the first intake manifold and a second split line extending into the second intake manifold; a first pulsing valve mounted externally of the first intake manifold in the first split line between the common intake line and the first intake manifold, and configured to regulate refrigerant flow into the first intake manifold; and a second pulsing valve mounted externally of the second intake manifold in the second split line between the common intake line and the second intake manifold, and configured to regulate refrigerant flow into the second intake manifold. a housing; first and second intake manifolds (42A,42B) disposed at the housing for segregating inlet flow into the compressor; first and second reciprocating piston compression units both disposed at the housing and configured to receive flow from the first and second intake manifolds (42A,42B), respectively; and an outlet manifold for collecting and distributing compressed refrigerant from the first and second compression units; characterised by: a common intake line for connecting to a discharge of a heat exchanger and including a first split line extending into the first intake manifold and a second split line extending into the second intake manifold; a first pulsing valve mounted externally of the first intake manifold in the first split line between the common intake line and the first intake manifold, and configured to regulate refrigerant flow into the first intake manifold; and a second pulsing valve mounted externally of the second intake manifold in the second split line between the common intake line and the second intake manifold, and configured to regulate refrigerant flow into the second intake manifold. a common intake line for connecting to a discharge of a heat exchanger and including a first split line extending into the first intake manifold and a second split line extending into the second intake manifold; a first pulsing valve mounted externally of the first intake manifold in the first split line between the common intake line and the first intake manifold, and configured to regulate refrigerant flow into the first intake manifold; and a second pulsing valve mounted externally of the second intake manifold in the second split line between the common intake line and the second intake manifold, and configured to regulate refrigerant flow into the second intake manifold.
A method for digitalizing a scintillation pulse, comprising: step S1, acquiring a pulse database outputted by a detector irradiated by rays of different energy; step S2, sampling and quantizing each of pulses in the pulse database obtained in S1 to acquire complete energy information comprised in the pulse; step S3, undersampling and quantizing each of the pulses in the pulse database obtained in step S1, and estimating or fitting energy information by using pulse prior information; step S4, with the energy information obtained in S2 as a standard, determining a mapping relationship between the energy information obtained by a prior information-based undersampling pulse energy acquisition method and the energy information obtained by the method of S2; and step S5, correcting the energy information obtained by the prior information-based undersampling pulse energy acquisition method by using the energy mapping relationship obtained in S4; characterized in that the complete energy information acquired in step S2 is acquired by directly digitalizing the pulse in such a way that the step of directly digitalizing the pulse comprises: critical/over-sampling the pulse by an analog-to-digital scheme, and acquiring a maximum voltage amplitude of sampling points to represent the energy information; or the step of directly digitalizing the pulse comprises: holding a peak calue by a peak-holding circuit, and sampling a voltage amplitude of a sampling peak point to represent the pulse energy information. step S1, acquiring a pulse database outputted by a detector irradiated by rays of different energy; step S2, sampling and quantizing each of pulses in the pulse database obtained in S1 to acquire complete energy information comprised in the pulse; step S3, undersampling and quantizing each of the pulses in the pulse database obtained in step S1, and estimating or fitting energy information by using pulse prior information; step S4, with the energy information obtained in S2 as a standard, determining a mapping relationship between the energy information obtained by a prior information-based undersampling pulse energy acquisition method and the energy information obtained by the method of S2; and step S5, correcting the energy information obtained by the prior information-based undersampling pulse energy acquisition method by using the energy mapping relationship obtained in S4; characterized in that
An information device comprising: a communication component configured to communicate with an external device; and a controller configured to download video data from the external device through the communication component, configured to execute a post-download processing for playing the video data after completing download of the video data, and configured to execute an application for playing the video data, characterized in that the controller is configured to send a download request for the video data to the external device based on a processing time for the post-download processing while the application for playing the video data is running in the background; the controller is configured to determine if the post-download processing is to be completed within a specific length of time after completing download of the video data; and if the controller determines that the post-download processing is not to be completed within the specific length of time, the controller is configured to send the download request again for part of the video data to the external device before the status of the application for playing the video data changes from background into suspended. a communication component configured to communicate with an external device; and a controller configured to download video data from the external device through the communication component, configured to execute a post-download processing for playing the video data after completing download of the video data, and configured to execute an application for playing the video data, characterized in that the controller is configured to send a download request for the video data to the external device based on a processing time for the post-download processing while the application for playing the video data is running in the background; the controller is configured to determine if the post-download processing is to be completed within a specific length of time after completing download of the video data; and if the controller determines that the post-download processing is not to be completed within the specific length of time, the controller is configured to send the download request again for part of the video data to the external device before the status of the application for playing the video data changes from background into suspended.
A terminal apparatus for communicating with a base station apparatus, the terminal apparatus comprising: a reception unit configured to receive a radio resource control, RRC, connection reconfiguration message from the base station apparatus with a first cell, wherein the first cell is a primary cell of a master cell group serving the terminal apparatus; and a control unit configured to configure a secondary cell group for serving the terminal apparatus based on first information included in the RRC connection reconfiguration message, and configure a data radio bearer, DRB, based on a drb-ToAddModList information element, IE, included in the first information, wherein the drb-ToAddModList IE includes an identifier of the DRB and subcarrier spacing information corresponding to the DRB, and the terminal apparatus is further configured to transmit an RRC connection reconfiguration complete message to the base station apparatus if the terminal apparatus follows a configuration included in the RRC connection reconfiguration message. a reception unit configured to receive a radio resource control, RRC, connection reconfiguration message from the base station apparatus with a first cell, wherein the first cell is a primary cell of a master cell group serving the terminal apparatus; and a control unit configured to configure a secondary cell group for serving the terminal apparatus based on first information included in the RRC connection reconfiguration message, and configure a data radio bearer, DRB, based on a drb-ToAddModList information element, IE, included in the first information, wherein the drb-ToAddModList IE includes an identifier of the DRB and subcarrier spacing information corresponding to the DRB, and the terminal apparatus is further configured to transmit an RRC connection reconfiguration complete message to the base station apparatus if the terminal apparatus follows a configuration included in the RRC connection reconfiguration message.
A method of cutting a thin-walled material having an inner round surface and an outer round surface over a predetermined range in the direction parallel to a central axis thereof, the method comprising the steps of: preparing a material having a much stock for obtaining the thin-walled material; cutting the inner round surface by a desired distance within the predetermined range by feeding a cutting tool relative to the material by the desired distance from one end side to the other end side of the central axis while rotating the material around the central axis; cutting the outer round surface by a desired distance within the predetermined range by feeding the cutting tool relative to the material by the desired distance from one end side to the other end side of the central axis while rotating the material around the central axis; and characterised by finishing the inner round surface and the outer round surface over the predetermined ranges by alternately repeating the steps and, wherein the step is performed in order of the step and the step or in order of the step and the step, after the step. preparing a material having a much stock for obtaining the thin-walled material; cutting the inner round surface by a desired distance within the predetermined range by feeding a cutting tool relative to the material by the desired distance from one end side to the other end side of the central axis while rotating the material around the central axis; cutting the outer round surface by a desired distance within the predetermined range by feeding the cutting tool relative to the material by the desired distance from one end side to the other end side of the central axis while rotating the material around the central axis; and characterised by finishing the inner round surface and the outer round surface over the predetermined ranges by alternately repeating the steps and,
A slit lamp microscope comprising: an illumination unit that illuminates an eye to be examined; an illumination support arm to which the illumination unit is attached; a support base to which the illumination support arm is attached; and an illumination-power-supply cable disposed along the illumination support arm from the support base side to the illumination unit, wherein the illumination support arm has a groove-shaped cable holder in which the illumination-power-supply cable is disposed along the outer surface of the illumination support arm in an externally exposed state. an illumination unit that illuminates an eye to be examined; an illumination support arm to which the illumination unit is attached; a support base to which the illumination support arm is attached; and an illumination-power-supply cable disposed along the illumination support arm from the support base side to the illumination unit, wherein the illumination support arm has a groove-shaped cable holder in which the illumination-power-supply cable is disposed along the outer surface of the illumination support arm in an externally exposed state.
A method comprising distilling a feed stream of an aqueous organic component mixture containing methyl methacrylate, water, methanol, methacrolein and at least 1 wt.% of acetals or hemiacetals of methacrolein, based on the total weight of MMA plus the acetals or hemiacetals of methacrolein in the aqueous organic component mixture, reacting the aqueous organic component mixture with one or more strong or inorganic acids having a pKa of 1 or less and removing from the distillation an overhead stream and a bottoms stream comprising methyl methacrylate and 100 ppm or less of acetals or hemiacetals of methacrolein.
Hydrocracking catalyst composition which comprises an optional metal hydrogenation component supported on a carrier comprising a zeolite of the faujasite structure having a unit cell size in the range of from 24.10 to 24.40 Å, a bulk silica to alumina ratio of from 20 to 100, and a surface area of at least 890 m 2 /g as measured by the BET method and ATSM D 4365-95 with nitrogen adsorption at a p/po value of 0.03 and having a micropore volume of greater than 0.28 ml/g and the micropore volume lies in the range of from 55% and 70% of the total pore volume wherein the micropore volume indicates the pore volume in pores having a diameter of less than 2 nm.
A system for adjustably positioning an elevator guide rail, comprising: an adjustment device arranged on a moving platform and having a clamping portion and a powering portion, the clamping portion being arranged to be capable of clamping the elevator guide rail to be installed through a power output from the powering portion and moving in a first direction, a second direction and/or a third direction, and the moving platform being capable of moving up and down in the first direction; a detection device arranged to detect current movement characteristics of the clamping portion when the elevator guide rail is not clamped or has been clamped by the clamping portion; and a control device connected to the detection device and the adjustment device, and arranged to adjust the position of the clamping portion in place by controlling the powering portion according to the movement characteristics so that the clamped elevator guide rail can be positioned and installed at a target position; and characterized in that: the moving platform is an elevator car, and the system for adjustably positioning an elevator guide rail is detachably installed on a top frame of the elevator car. an adjustment device arranged on a moving platform and having a clamping portion and a powering portion, the clamping portion being arranged to be capable of clamping the elevator guide rail to be installed through a power output from the powering portion and moving in a first direction, a second direction and/or a third direction, and the moving platform being capable of moving up and down in the first direction; a detection device arranged to detect current movement characteristics of the clamping portion when the elevator guide rail is not clamped or has been clamped by the clamping portion; and a control device connected to the detection device and the adjustment device, and arranged to adjust the position of the clamping portion in place by controlling the powering portion according to the movement characteristics so that the clamped elevator guide rail can be positioned and installed at a target position; and characterized in that: the moving platform is an elevator car, and the system for adjustably positioning an elevator guide rail is detachably installed on a top frame of the elevator car.