mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: processing circuitry to process instructions; address translation circuitry to translate a virtual address to a physical address in response to a virtual address request from the processing circuitry; and translation latency measuring circuitry to measure a latency of at least part of an address translation process performed by the address translation circuitry in response to a given instruction, characterized in that said translation latency measuring circuitry is configured to measure the latency between a start event and an end event detected for said given instruction, wherein the translation latency measuring circuitry is configured to detect the end event in response to one of: a translated address being returned by the address translation circuitry, or a data access request specifying a translated address obtained by the address translation circuitry being issued to a data store. processing circuitry to process instructions; address translation circuitry to translate a virtual address to a physical address in response to a virtual address request from the processing circuitry; and translation latency measuring circuitry to measure a latency of at least part of an address translation process performed by the address translation circuitry in response to a given instruction, characterized in that said translation latency measuring circuitry is configured to measure the latency between a start event and an end event detected for said given instruction, wherein the translation latency measuring circuitry is configured to detect the end event in response to one of: a translated address being returned by the address translation circuitry, or a data access request specifying a translated address obtained by the address translation circuitry being issued to a data store. a translated address being returned by the address translation circuitry, or a data access request specifying a translated address obtained by the address translation circuitry being issued to a data store.
Method of washing a cellulosic furnish comprising; - mixing one or more substantially water-free fluid(s) or composition(s) with water; and - shearing the one or more substantially water-free fluid(s) or composition(s) and water with a shearing means having a shearing rate of at least 5000 s· 1 thereby producing an emulsion; and - conveying the emulsion into a brownstock washing operation; wherein the one or more substantially water-free fluid(s) or composition(s) has a Brookfield viscosity of less than about 70,000 mPas (centipoise cP) when measured at 25°C with a# 6 spindle, wherein the emulsion is conveyed into a brownstock washing vessel within 8 hours of preparing the emulsion. - mixing one or more substantially water-free fluid(s) or composition(s) with water; and - shearing the one or more substantially water-free fluid(s) or composition(s) and water with a shearing means having a shearing rate of at least 5000 s· 1 thereby producing an emulsion; and - conveying the emulsion into a brownstock washing operation;
A horizontal-tube sedimentation-separation apparatus comprising a plurality of parallel inclined plates arranged to extend along the flowing direction of the water and a plurality of isolating plates arranged between each adjacent pair of inclined plates, an upper one of the adjacent pair of inclined plates being called upper inclined plate, and a lower one of the adjacent pair of inclined plates being called lower inclined plate, characterized in that, the isolating plates are parallel to the inclined plates and provided with one or more baffles, the baffles extending from the bottom face of the isolating plates at their front and back ends, tightly connected to and extending between the isolating plates and the corresponding adjacent lower inclined plated and perpendicular to the flowing direction of the water, thereby forming a static fluid region between the isolating plates and the corresponding adjacent lower inclined plate, wherein the static fluid region together with a water flowing region above the isolating plates compose one working unit, the isolating plates being further provided with N lines of sludge-disposal path, and each sludge-discharging path being designed as a long-opening (6, 7) extending along the flowing direction of the water between the static and the water fluid regions, wherein, N represents positive integral; the apparatus further comprises flat supporting plates arranged between the isolating plates and the corresponding adjacent upper inclined plates, the upper ends of the flat supporting plates connecting with the upper inclined plates, the lower ends of the flat supporting plates connecting with bottom edges of the long-openings (6, 7), the lower ends of the flat supporting plates being flush with the bottom edges of the long-openings (6, 7).
An electronic equipment rack comprising: a top frame and a bottom frame connected by at least one post and a plurality of vertical posts, wherein the post comprises a threaded hole configured to receive a mounting bolt; a plurality of rail assemblies connected to the vertical posts, wherein each of the rail assemblies comprises an opening aligned with the threaded hole to secure the post to the rail assembly by the mounting bolt, and the post is slidably configured within the rack; and a plurality of brackets installed on the post, wherein each of the brackets within the plurality of brackets comprises an L-shaped first portion and a planar second portion, wherein the planar second portion comprises a threaded member configured to secure the bracket to the post, and each bracket within the plurality of brackets is configured to rotate around the threaded member. a top frame and a bottom frame connected by at least one post and a plurality of vertical posts, wherein the post comprises a threaded hole configured to receive a mounting bolt; a plurality of rail assemblies connected to the vertical posts, wherein each of the rail assemblies comprises an opening aligned with the threaded hole to secure the post to the rail assembly by the mounting bolt, and the post is slidably configured within the rack; and a plurality of brackets installed on the post, wherein each of the brackets within the plurality of brackets comprises an L-shaped first portion and a planar second portion, wherein the planar second portion comprises a threaded member configured to secure the bracket to the post, and each bracket within the plurality of brackets is configured to rotate around the threaded member.
A method of rendering at least one soundfield to a listener via binaural headphones, wherein the at least one soundfield_includes sound information and spatial location information related to at least one sound source, the method comprising: generating a number of virtual speaker feeds from each soundfield; transforming the number of virtual speaker feeds into binaural headphone feeds; rendering the at least one soundfield to the listener by feeding the binaural headphone feeds to the headphones, wherein the binaural headphone feeds are configured to have the listener perceive each soundfield as originating from a region exclusively in front of the listener, wherein said number of virtual speaker feeds includes N virtual speaker feeds configured for playback over N speakers arranged around the listener in a horizontal plane, and transforming the N virtual speaker feeds into the binaural headphone feeds includes transforming the N virtual speaker feeds into an array of virtual speakers feeds configured for playback over an array of virtual speakers arranged in a vertical plane located in front of the listener. generating a number of virtual speaker feeds from each soundfield; transforming the number of virtual speaker feeds into binaural headphone feeds; transforming the N virtual speaker feeds into the binaural headphone feeds includes transforming the N virtual speaker feeds into an array of virtual speakers feeds configured for playback over an array of virtual speakers arranged in a vertical plane located in front of the listener.
A supporter for supporting an electronic device, comprising: a base having a surface and a groove formed on the surface; a holder disposed on the surface of the base; a linkage assembly disposed in the base, wherein the linkage assembly is rotatable relative to the base, and comprises: a first shaft at least partially disposed in the groove; a second shaft connected to the holder; and a linkage member connected to the first shaft and the second shaft and configured to link the first shaft to the second shaft; and a connector disposed on the first shaft and protruding from the groove for connecting the electronic device, wherein the base further has a positioning portion protruding from the groove for positioning the electronic device; a support column penetrating the surface of the base and connected to the holder, wherein the support column is fixedly connected to the second shaft, and the support column comprises: a first section connected to the second shaft; and a second section connected to the holder and pivoted to the first section, characterized in that the first section has a protrusion, the second section has a through hole, the protrusion is accommodated and rotatable in the through hole, and the first section is pivoted to the second section via the protrusion. a base having a surface and a groove formed on the surface; a holder disposed on the surface of the base; a linkage assembly disposed in the base, wherein the linkage assembly is rotatable relative to the base, and comprises: a first shaft at least partially disposed in the groove; a second shaft connected to the holder; and a linkage member connected to the first shaft and the second shaft and configured to link the first shaft to the second shaft; and a first shaft at least partially disposed in the groove; a second shaft connected to the holder; and a linkage member connected to the first shaft and the second shaft and configured to link the first shaft to the second shaft; and a connector disposed on the first shaft and protruding from the groove for connecting the electronic device, wherein the base further has a positioning portion protruding from the groove for positioning the electronic device; a support column penetrating the surface of the base and connected to the holder, wherein the support column is fixedly connected to the second shaft, and the support column comprises: a first section connected to the second shaft; and a second section connected to the holder and pivoted to the first section, a first section connected to the second shaft; and a second section connected to the holder and pivoted to the first section, characterized in that the first section has a protrusion, the second section has a through hole, the protrusion is accommodated and rotatable in the through hole, and the first section is pivoted to the second section via the protrusion.
Anti-condensating valve comprising a housing having a first inlet, a second inlet and an outlet forming ports (27, 38, 45) of a mixing chamber, the first inlet being adapted to receive a flow of a first fluid into the mixing chamber, and the second inlet being adapted to receive a flow of a second fluid into the mixing chamber, the first fluid having a higher temperature than the second fluid, and the outlet being adapted to discharge a flow of a mixed fluid out from the mixing chamber, wherein the centre axis of the first inlet is coaxial with the centre axis of the second inlet, and wherein the anti-condensating valve further comprises a valve body with a thermostatic cartridge, the valve body being arranged to control the flow of the first and the second fluid into the mixing chamber, characterized in that the inner walls of the mixing chamber, as seen in a plane orthogonally to the centre axes (A, B) of the first and the second inlets (20, 21) and coinciding with the center axis of the outlet, define a full cross sectional surface area along said plane, wherein the center axes (A, B) of the first and second inlets (20, 21) respectively are arranged in a position between the outlet and the centre of mass of said full cross sectional surface area.
A peptide derivative represented by the following general formula where ExP represents a polypeptide that is represented by an amino acid sequence of the following formula and contains completely or partially the amino acid sequence of exendin-4 (HGEGTFTSDLSKQMEEEAVRLFIEWLKNGGPSSGAPPPS (SEQ ID NO.1)), Ex4(x-y)-K n where Ex4(x-y) represents the amino acid sequence of SEQ ID No.1 between positions x and y, x is an integer from 1 to 9, y is an integer from 30 to 39, K represents lysine, and n is 0 or 1, the α-amino group at the N-terminus of the polypeptide ExP is unmodified or is modified with a modifying group having no electric charge, the carboxyl group at the C-terminus of the polypeptide ExP is amidated, and the -L-Z group represents a group represented by the following formula that is bound to an amino acid side chain of a lysine that corresponds to position 12 or 40 of the polypeptide represented by the amino acid sequence of formula, where 1 is 0, 1 or 2 and m is an integer from 3 to 30 when n in formula is 1,1 is an integer from 0 to 8 and m is an integer from 2 to 8 or 4 to 30 when n in formula is 0, and Z represents a labeling group containing a radionuclide or isotope thereof.
A method for connecting a secure element cooperating with a device to a network of a first mobile network operator thanks to an ephemeral IMSI, e-IMSI, called first IMSI, said first IMSI being stored in said secure element, in order to get another IMSI, t-IMSI, called second IMSI, from said first mobile network operator, said method comprising: A - Selecting by said device the radio serving network, VPLMN, after executing the 3GPP network selection procedure, called first selected network, said first selected network being not listed in the Forbidden VPLMN list, FPLMN, of said secure element; B - Sending by said device a REGISTER REQUEST message comprising said first IMSI, e-IMSI, to said first selected network; C - If said first selected network, VPLMN, does not route said message to the network of said first mobile network operator, stop trying to register to said first selected network, VPLMN, and put the MCC/MNC codes of said first selected network, VPLMN, in said Forbidden VPLMN list, FPLMN, of said secure element; D - Searching by said device for a another network with the 3GPP network selection procedure to register on; E - Repeat steps A to D until a network routes said first IMSI, e-IMSI, to the network of said first mobile network operator. A - Selecting by said device the radio serving network, VPLMN, after executing the 3GPP network selection procedure, called first selected network, said first selected network being not listed in the Forbidden VPLMN list, FPLMN, of said secure element; B - Sending by said device a REGISTER REQUEST message comprising said first IMSI, e-IMSI, to said first selected network; C - If said first selected network, VPLMN, does not route said message to the network of said first mobile network operator, stop trying to register to said first selected network, VPLMN, and put the MCC/MNC codes of said first selected network, VPLMN, in said Forbidden VPLMN list, FPLMN, of said secure element; D - Searching by said device for a another network with the 3GPP network selection procedure to register on; E - Repeat steps A to D until a network routes said first IMSI, e-IMSI, to the network of said first mobile network operator.
A vehicle air vent damper, in which a blocking pad forcedly fitted into an outer peripheral coupling groove of a working member, which is rotationally hinge-coupled to inside an air vent, is held by a blocking step of a blocking protrusion provided inside the air vent, at an end thereof such that a rotation of the working member with the blocking pad is controlled so as to control a discharge amount of air introduced into a vehicle room through the air vent, wherein the working member has the coupling groove formed along an outer peripheral surface thereof, and a base part formed to have a fixing part short on one surface of a coupling groove while the fixing part extends long on another surface of the coupling groove such that a right side and a left side with reference to a hinge groove are opposite to each other; and the blocking pad has a coupling hole formed in a middle thereof so as to be forcedly fitted into the coupling groove of the working member, said vehicle air vent damper being characterized in that the working member further includes fitting grooves depressed inward on right and left ends of the fixing part, and the base part is formed to further have coupling hooks to be exposed through the fitting grooves, the blocking pad further includes fitting holes formed at right and left sides thereof so as to be fitted into the coupling hooks, the fitting grooves and the coupling hooks formed at the right and left sides of the working member are arranged at different horizontal positions on the right and left sides of the working member, the coupling hooks are formed to have vertical surfaces on the insides thereof and to protrude to outsides with an inclination, and the working member and the blocking pad include the two coupling hooks and the two fitting holes at one side, and one coupling hook and one fitting hole at the other side so as to prevent the misassembling of the blocking pad.
Tap changer for uninterrupted switching over between winding taps of a tapped transformer, wherein two load branches are provided, wherein each load branch comprises a vacuum interrupter acting as a main contact and parallel thereto a series connection of a switching-over resistance and a further vacuum interrupter, wherein the two load branches are connectible with a common load diverter, wherein a first mechanical switching element (MDC a) is provided between the electrical connection of the two vacuum interrupters (MSV a, TTV a) of the first load branch and the load diverter and wherein a further mechanical switching element (MDC b) is provided between the electrical connection of the two vacuum interrupters (MSV b, TTV b) of the second load branch and the load diverter, characterised in that the two mechanical switching elements (MDC a, MDC b) are constructed as isolating switches actuable independently of one another, in the stationary state the mechanical switching element (MDC a) arranged in the load branch conducting the load current is closed and the mechanical switching element (MDC b) arranged in the load branch not conducting the load current is opened and prior to start of an uninterrupted switching-over process the switching element (MDC b) arranged in the load branch not conducting the load current is closed and the other mechanical switching element (MDC a) arranged in the other load branch then no longer conducting the load current is opened only after the conclusion of each switching-over process.
A Radio Frequency Identification, RFID, tag, comprising: an antenna adapted to receive an input AC signal; a charge pump rectifier coupled with the antenna; a tuning system coupled with the antenna to optimize signal strength of the input AC signal; a diode rectifier coupled with the antenna to receive the input AC signal after the tuning system optimizes the signal strength of the input AC signal by tuning an input impedance of the antenna, wherein the diode rectifier is configured to power a main system of the RFID tag; characterized in that the tuning system is configured to optimize the signal strength of the input AC signal by tuning the input impedance of the antenna based on an output of the charge pump rectifier. an antenna adapted to receive an input AC signal; a charge pump rectifier coupled with the antenna; a tuning system coupled with the antenna to optimize signal strength of the input AC signal; a diode rectifier coupled with the antenna to receive the input AC signal after the tuning system optimizes the signal strength of the input AC signal by tuning an input impedance of the antenna, wherein the diode rectifier is configured to power a main system of the RFID tag; characterized in that the tuning system is configured to optimize the signal strength of the input AC signal by tuning the input impedance of the antenna based on an output of the charge pump rectifier.
A kit for detecting at least one target molecule that may be present in a test sample, the kit comprising: at least one aptamer comprising a tag and having specific affinity for a target molecule; a labelling agent; a solid support comprising at least one probe; and a competitor molecule, wherein the competitor molecule is selected from a polydextran, dNTPs, abasic phosphodiester polymers, pyrophosphate, dextran sulphate, and heparin. at least one aptamer comprising a tag and having specific affinity for a target molecule; a labelling agent; a solid support comprising at least one probe; and a competitor molecule, wherein the competitor molecule is selected from a polydextran, dNTPs, abasic phosphodiester polymers, pyrophosphate, dextran sulphate, and heparin.
A computer-implemented method of modulating energy consumption by a water provision system, the water provision system comprising a heat pump configured to transfer thermal energy from the surrounding to a thermal energy storage and a control module configured to control operation of the water provision system, the water provision system being configured to provide water heated by the thermal energy storage to a water outlet, the method being performed by the control module and comprising: receiving data from a plurality of sensors; setting a first temperature for heated water being provided to the water outlet; setting a second temperature for heated water being provided to the water outlet, the second temperature being different from the first temperature; and upon determining that the water outlet is turned on, alternating a temperature of heated water provided to the water outlet between the first temperature and the second temperature, wherein the control module executes a machine learning algorithm, MLA, which is trained using data from the plurality of sensors to establish a learned water and energy usage pattern, wherein the control module sets the first temperature and/or the second temperature to achieve a predetermined energy consumption target guided by the learned water and energy usage pattern determined by the MLA. receiving data from a plurality of sensors; setting a first temperature for heated water being provided to the water outlet; setting a second temperature for heated water being provided to the water outlet, the second temperature being different from the first temperature; and upon determining that the water outlet is turned on, alternating a temperature of heated water provided to the water outlet between the first temperature and the second temperature, wherein the control module executes a machine learning algorithm, MLA, which is trained using data from the plurality of sensors to establish a learned water and energy usage pattern, wherein the control module sets the first temperature and/or the second temperature to achieve a predetermined energy consumption target guided by the learned water and energy usage pattern determined by the MLA.