mhurhangee/ep-ind-claims huggingface dataset:
A clock synchronization method comprising: in a case where a Precision Time Protocol, PTP, message is received by a system, determining attribute information of a PTP port of the received PTP message, wherein the attribute information comprises at least one of the following: high-precision mode or non-high-precision mode, non-high-precision ingress correction field, cf, modification mark or non-high-precision egress cf modification mark; and performing clock synchronization on the PTP message according to the attribute information of the PTP port; wherein performing the clock synchronization on the PTP message according to the attribute information of the PTP port comprises: in a case where an ingress PTP port of the PTP message is in a high-precision mode, modifying a sending time field of the PTP message; in a case where an egress PTP port of the PTP message is in the non-high-precision mode and the non-high-precision egress cf modification mark of the egress PTP port is enabled, modifying a cf field of the PTP message; and in a case where the egress PTP port is in the non-high-precision mode and the non-high-precision egress cf modification mark of the egress PTP port is not enabled, not modifying the PTP message. in a case where a Precision Time Protocol, PTP, message is received by a system, determining attribute information of a PTP port of the received PTP message, wherein the attribute information comprises at least one of the following: high-precision mode or non-high-precision mode, non-high-precision ingress correction field, cf, modification mark or non-high-precision egress cf modification mark; and performing clock synchronization on the PTP message according to the attribute information of the PTP port; wherein performing the clock synchronization on the PTP message according to the attribute information of the PTP port comprises: in a case where an ingress PTP port of the PTP message is in a high-precision mode, modifying a sending time field of the PTP message; in a case where an egress PTP port of the PTP message is in the non-high-precision mode and the non-high-precision egress cf modification mark of the egress PTP port is enabled, modifying a cf field of the PTP message; and in a case where the egress PTP port is in the non-high-precision mode and the non-high-precision egress cf modification mark of the egress PTP port is not enabled, not modifying the PTP message. in a case where an ingress PTP port of the PTP message is in a high-precision mode, modifying a sending time field of the PTP message; in a case where an egress PTP port of the PTP message is in the non-high-precision mode and the non-high-precision egress cf modification mark of the egress PTP port is enabled, modifying a cf field of the PTP message; and in a case where the egress PTP port is in the non-high-precision mode and the non-high-precision egress cf modification mark of the egress PTP port is not enabled, not modifying the PTP message.
An oxygen reduction catalyst comprising: a metal complex represented by formula; and a carbon material, wherein, in formula, X 1 to X 8 each independently represent a hydrogen atom or a halogen atom, D 1 to D 4 each represent a nitrogen atom or a carbon atom wherein the carbon atom has bound thereto a hydrogen atom or a halogen atom, and M represents an iron atom; wherein the carbon material is carbon nanotube, carbon black or graphene. a metal complex represented by formula; and a carbon material, wherein, in formula, X 1 to X 8 each independently represent a hydrogen atom or a halogen atom, D 1 to D 4 each represent a nitrogen atom or a carbon atom wherein the carbon atom has bound thereto a hydrogen atom or a halogen atom, and M represents an iron atom; wherein the carbon material is carbon nanotube, carbon black or graphene.
A stent comprising: a braided wire body having a proximal end and a distal end, the braided wire body formed from at least a first wire and at least a second wire, the first wire having a first cross-sectional area and the second wire having a second cross-sectional area different from the first cross-sectional area; wherein the proximal end of the braided wire body comprises a plurality of peaks, the peaks comprising first peaks and first loop ends, the first loop ends circumferentially alternating with the first peaks, the first loop ends extending proximally beyond the first peaks, characterised in that the first loop ends each include a first parallel portion and a second parallel portion and a bent portion, the two parallel portions being connected to one another via the bent portion, and with at least a portion of the first and second parallel portions extending beyond the first peaks. a braided wire body having a proximal end and a distal end, the braided wire body formed from at least a first wire and at least a second wire, the first wire having a first cross-sectional area and the second wire having a second cross-sectional area different from the first cross-sectional area; wherein the proximal end of the braided wire body comprises a plurality of peaks, the peaks comprising first peaks and first loop ends, the first loop ends circumferentially alternating with the first peaks, the first loop ends extending proximally beyond the first peaks, characterised in that the first loop ends each include a first parallel portion and a second parallel portion and a bent portion, the two parallel portions being connected to one another via the bent portion, and with at least a portion of the first and second parallel portions extending beyond the first peaks.
Slot caster with a longitudinal coating nozzle for the application of material in a coating system, wherein a preferably longitudinal, rigid carrier element is provided, on which the coating nozzle is mounted by the intermediate introduction of a plurality of adjusting elements, spaced at a distance from one another along its longitudinal extension, wherein the adjusting elements are connected respectively to the carrier element by their first end and to the coating nozzle by their other end, and wherein the coating nozzle is configured at least in its outlet direction as flexible in such a way that, due to the individually activatable adjusting elements, by the adjustment of each adjusting element in the outlet direction, a specific displacement of the coating nozzle in its respective range is possible, characterised in that the adjusting elements have an adjustment range of up to 5 mm, advantageously up to 2 mm, and the adjusting elements are provided along the longitudinal extension of the coating nozzle with a distance interval from one another of approx. 150 mm to 400 mm, preferably an interval of approx. 300 mm, and the rigidity of the carrier element is greater than the rigidity of the coating nozzle, and wherein, further, at least three adjusting elements are provided, and preferably ten or more adjusting elements, and the adjusting elements are configured as differential elements.
Medical device for administering a solution, said device comprising pumping means, a reservoir, means of communication between said reservoir and said pumping means, and a line for connecting the medical device to a patient, characterized in that it comprises means for determining the physical/ chemical characteristics of the solution as a function of time by means of a mathematical model that takes account of a modification in the solution over the course of time as a function of the exposure to temperature.
A take-up apparatus configured to wind yarns spun from a melt spinning machine, the take-up apparatus comprising: a package winding unit configured to wind the yarns around winding bobbins; a first godet roller configured to receive the yarns from the melt spinning machine; a second godet roller disposed above the package winding unit and more on a downstream side than the first godet roller in a travel direction of the yarns, and configured to feed the yarns to the package winding unit characterized in that the take-up apparatus further comprises; a yarn feeding unit including the first godet roller and the second godet roller and configured to feed the yarns to the package winding unit while processing the yarns from the melt spinning machine; and a first beam disposed in an area sandwiched by a first yarn path between the melt spinning machine and the first godet roller and by a second yarn path leading from the first godet roller to the second godet roller, and configured to support the yarn feeding unit. a package winding unit configured to wind the yarns around winding bobbins; a first godet roller configured to receive the yarns from the melt spinning machine; a second godet roller disposed above the package winding unit and more on a downstream side than the first godet roller in a travel direction of the yarns, and configured to feed the yarns to the package winding unit characterized in that the take-up apparatus further comprises; a yarn feeding unit including the first godet roller and the second godet roller and configured to feed the yarns to the package winding unit while processing the yarns from the melt spinning machine; and a first beam disposed in an area sandwiched by a first yarn path between the melt spinning machine and the first godet roller and by a second yarn path leading from the first godet roller to the second godet roller, and configured to support the yarn feeding unit.
Dewar device for mechanical and/or functional components of a watch, said device being formed by the combination of its casing and of a case of the watch in order to suitably thermally insulate these mechanical and/or functional components, said casing being provided with a bracelet and a casing including a crystal, a back and a middle connected to said bracelet, the casing comprising an enclosure in which a case of said watch is capable of being arranged and at least one fastening device fastening said case of the watch inside said enclosure of the casing while keeping it away from the set of elements (10a, 10b, 10c) of the casing defining this enclosure, said set (10a, 10b, 10c) comprising the crystal made of a transparent ceramic material, in particular a transparent polycrystalline ceramic material and in which device is disposed a crystal of the case of the watch such that it faces the crystal of the casing when the case of the watch is arranged inside said enclosure.
Method for estimating the movement of a walking pedestrian comprising steps of: (a) Measuring, by inertial-measurement means rigidly connected to a lower limb of said pedestrian and positioned in such a way as to have substantially a movement of rotation with respect to a distal end of said lower limb at least when said distal end of the lower limb is in contact with the ground, an acceleration and an angular speed of said lower limb; (b) Estimating, by data-processing means (21, 31, 41), a speed of said lower limb according to said measured acceleration and said measured angular speed; (c) Determining, by the data-processing means (21, 31, 41), a time interval of said walking of the pedestrian during which said distal end of said lower limb is in contact with the ground according to the measured acceleration, the measured angular speed, and a moment arm between the inertial-measurement means and said distal end; (d) In said determined time interval: ∘ Calculating, by the data-processing means (21, 31, 41), an expected speed of said lower limb according to said measured angular speed and said moment arm; ∘ Correcting the estimated speed of said lower limb according to the expected speed; (e) Estimating, by the data-processing means (21, 31, 41), the movement of the pedestrian according to the corrected speed of said lower limb. (a) Measuring, by inertial-measurement means rigidly connected to a lower limb of said pedestrian and positioned in such a way as to have substantially a movement of rotation with respect to a distal end of said lower limb at least when said distal end of the lower limb is in contact with the ground, an acceleration and an angular speed of said lower limb; (b) Estimating, by data-processing means (21, 31, 41), a speed of said lower limb according to said measured acceleration and said measured angular speed; (c) Determining, by the data-processing means (21, 31, 41), a time interval of said walking of the pedestrian during which said distal end of said lower limb is in contact with the ground according to the measured acceleration, the measured angular speed, and a moment arm between the inertial-measurement means and said distal end; (d) In said determined time interval: ∘ Calculating, by the data-processing means (21, 31, 41), an expected speed of said lower limb according to said measured angular speed and said moment arm; ∘ Correcting the estimated speed of said lower limb according to the expected speed; ∘ Calculating, by the data-processing means (21, 31, 41), an expected speed of said lower limb according to said measured angular speed and said moment arm; ∘ Correcting the estimated speed of said lower limb according to the expected speed; (e) Estimating, by the data-processing means (21, 31, 41), the movement of the pedestrian according to the corrected speed of said lower limb.
A method of handling random access for a user equipment of a wireless communication system, the method comprising: transmitting a plurality of repetitions of a random access preamble to a network of the wireless communication system; and monitoring a physical downlink control channel in a random access response window which starts at a first subframe containing the end of the first repetition of the plurality of repetitions of the random access preamble plus M subframes and ends at a second subframe containing the end of the last repetition of the plurality of repetitions of the random access preamble plus N+W subframes, for receiving a random access response identified by a random access radio network temporary identifier, RA-RNTI, from the network, wherein M and N are greater than or equal to a preconfigured value associated with propagation delay and processing time in the wireless communication system, or values of M and N are configured statically by a standard or specification or dynamically by the network, and wherein W is a preconfigured value or a value of W is configured by the network via system information. transmitting a plurality of repetitions of a random access preamble to a network of the wireless communication system; and monitoring a physical downlink control channel in a random access response window which starts at a first subframe containing the end of the first repetition of the plurality of repetitions of the random access preamble plus M subframes and ends at a second subframe containing the end of the last repetition of the plurality of repetitions of the random access preamble plus N+W subframes, for receiving a random access response identified by a random access radio network temporary identifier, RA-RNTI, from the network, wherein M and N are greater than or equal to a preconfigured value associated with propagation delay and processing time in the wireless communication system, or values of M and N are configured statically by a standard or specification or dynamically by the network, and wherein W is a preconfigured value or a value of W is configured by the network via system information.
A dynamic field camera arrangement for monitoring electromagnetic field behavior in a spatial region comprising a main magnetic field and a radio-frequency field limited to a first RF band, particularly in an MRI or NMR apparatus, the arrangement comprising: - a magnetic field detector set comprising a plurality of low-frequency magnetic field detectors, each one of said magnetic field detectors comprising a magnetic resonance active substance, means for pulsed MR excitation of said substance and means for receiving an MR signal generated by said substance, wherein said pulsed excitation and said MR detector signal is in a second RF band that does not overlap said first RF band; characterized in that - said MR signal receiving means comprise a first RF filter which suppresses RF signals from said first RF band and transmits RF signals from said second RF band. - a magnetic field detector set comprising a plurality of low-frequency magnetic field detectors, each one of said magnetic field detectors comprising a magnetic resonance active substance, means for pulsed MR excitation of said substance and means for receiving an MR signal generated by said substance, wherein said pulsed excitation and said MR detector signal is in a second RF band that does not overlap said first RF band; - said MR signal receiving means comprise a first RF filter which suppresses RF signals from said first RF band and transmits RF signals from said second RF band.
A blood analyzing device comprising: a holder arranged to carry a container having a cuvette comprising a hemolyzed blood sample; a light source arranged to generate input light and to direct said input light into said hemolyzed blood sample; a detector system arranged to detect output light from said hemolyzed blood sample and to generate, based on said output light, a parasite signal representative of an amount of malaria parasites in said hemolyzed blood sample; a processor; and a display arranged to display a parasitemia value, characterized in that said light source is arranged to generate said input light of at least one wavelength at which a hemoglobin, Hb, species has absorbance; said detector system is arranged to generate, based on said output light, a Hb signal representative of an amount of said Hb species in said hemolyzed blood sample; said processor is configured to process said Hb signal to generate a red blood cell value representative of a concentration of red blood cells in said blood sample prior to hemolysis and configured to generate, based on said parasite signal and said red blood cell value, said parasitemia value representative of a percentage of said red blood cells in said blood sample that are infected by a respective malaria parasite. a holder arranged to carry a container having a cuvette comprising a hemolyzed blood sample; a light source arranged to generate input light and to direct said input light into said hemolyzed blood sample; a detector system arranged to detect output light from said hemolyzed blood sample and to generate, based on said output light, a parasite signal representative of an amount of malaria parasites in said hemolyzed blood sample; a processor; and a display arranged to display a parasitemia value, characterized in that said light source is arranged to generate said input light of at least one wavelength at which a hemoglobin, Hb, species has absorbance; said detector system is arranged to generate, based on said output light, a Hb signal representative of an amount of said Hb species in said hemolyzed blood sample; said processor is configured to process said Hb signal to generate a red blood cell value representative of a concentration of red blood cells in said blood sample prior to hemolysis and configured to generate, based on said parasite signal and said red blood cell value, said parasitemia value representative of a percentage of said red blood cells in said blood sample that are infected by a respective malaria parasite.
Packaging for sterile products, comprising a tray and a cover made of cellular plastics material comprising at least two cover sheets (P1, P2) separated from each other by a plurality of spacers providing longitudinal cells that are parallel to each other, the tray and the cover comprising a base and sidewalls cut from a plate of said material and at least one of said sidewalls (12; 23, 25) being double-layered and formed by folding two panels (121, 122; 231, 232; 251, 252) of the plate around fold lines that are perpendicular to the direction of said spacers, which packaging is characterised in that the internal cover sheets are perforated to allow a sterilisation gas to pass through said cover sheet, the perforations allowing the passage of the gas but preventing the passage of dust, wide cut-outs (12a, 12b, 12c; 23a, 23b, 23c; 25a, 25b, 25c) pass through at least the other cover sheet of the plate to ensure that said cells communicate with the exterior, and are provided along the fold lines (123, 124; 233, 234; 253, 254) of said panels. the internal cover sheets are perforated to allow a sterilisation gas to pass through said cover sheet, the perforations allowing the passage of the gas but preventing the passage of dust, wide cut-outs (12a, 12b, 12c; 23a, 23b, 23c; 25a, 25b, 25c) pass through at least the other cover sheet of the plate to ensure that said cells communicate with the exterior, and are provided along the fold lines (123, 124; 233, 234; 253, 254) of said panels.
A solid oxide fuel cell comprising: a unit cell formed by stacking a cathode, electrolyte, and an anode; a separator plate having channels in both surfaces thereof, wherein reaction gas flows through the channels, and the channels include longitudinal channels parallel to a flow direction of the reaction gas, and lateral channels crossing the flow direction of the reaction gas; and a collector disposed between the unit cell and the separator plate, wherein the longitudinal channels increase in width from a reaction gas inflow hole to a reaction gas outflow hole. a unit cell formed by stacking a cathode, electrolyte, and an anode; a separator plate having channels in both surfaces thereof, wherein reaction gas flows through the channels, and the channels include longitudinal channels parallel to a flow direction of the reaction gas, and lateral channels crossing the flow direction of the reaction gas; and a collector disposed between the unit cell and the separator plate,
Use of a liquid formulation in an electronic beehive smoker for vapour cloud generation, said formulation comprising: - a solvent comprising, or consisting of, a mixture of propane-1,3-diol and glycerol, and - at least volatile organic liquid. - a solvent comprising, or consisting of, a mixture of propane-1,3-diol and glycerol, and - at least volatile organic liquid.
A multilayer ballistic protection panel comprising a stack of layers of fabric of woven yarns, the weave leaving through-interstices free between the yarns of each layer of fabric, and layers of adhesive which are interposed between the layers of fabric in an alternating manner and which provide overall cohesion to the multilayer panel, the layers of fabric of woven yarns comprising layers of woven fabric made of twisted polyester yarns, the layers of adhesive being layers of a thermoplastic material based on polyethylene, and the thermoplastic material passing through the interstices of the layers of fabric and connecting the layers of adhesive with one another, thereby ensuring cohesion of the multilayer panel assembly. the layers of fabric of woven yarns comprising layers of woven fabric made of twisted polyester yarns, the layers of adhesive being layers of a thermoplastic material based on polyethylene, and the thermoplastic material passing through the interstices of the layers of fabric and connecting the layers of adhesive with one another, thereby ensuring cohesion of the multilayer panel assembly.