mhurhangee/patent-ind-claim-en huggingface dataset:
A method for increasing the molecular weight of a ketoacid, the method comprising the steps of providing in a reactor a feedstock comprising at least one ketoacid, subjecting the feedstock to one or more C-C-coupling reaction(s), wherein the C-C-coupling reaction(s) are conducted in the presence of a solid acid catalyst system comprising a first metal oxide and a second metal oxide and wherein the content of the at least one ketoacid in the feedstock is at least 30 wt-%, and wherein the catalyst system comprises tungsten oxide, ceria or silica supported on a metal oxide carrier, wherein the carrier is selected from the group consisting of zirconia, titania, silica, vanadium oxide, or chromium oxide. providing in a reactor a feedstock comprising at least one ketoacid, subjecting the feedstock to one or more C-C-coupling reaction(s), wherein the C-C-coupling reaction(s) are conducted in the presence of a solid acid catalyst system comprising a first metal oxide and a second metal oxide and wherein the content of the at least one ketoacid in the feedstock is at least 30 wt-%, and wherein the catalyst system comprises tungsten oxide, ceria or silica supported on a metal oxide carrier, wherein the carrier is selected from the group consisting of zirconia, titania, silica, vanadium oxide, or chromium oxide.
A muffler for an exhaust system of an internal combustion engine, comprising a muffler housing with a circumferential wall which extends longitudinally in the direction of a housing longitudinal axis (L) and at least one base wall which is surrounded by the circumferential wall or/and retained on the circumferential wall separating two chambers in the muffler housing and providing an intermediate wall, wherein at least one base wall opening , which is surrounded by an opening edge region which is bent at an essentially plane base wall region of the base wall essentially in the direction of the housing longitudinal axis (L), and receives an exhaust pipe with a press fit, is provided in at least one base wall , characterized in that - the opening edge region is designed so that is interrupted circumferentially about an opening centre axis (M) of the base wall opening , wherein the opening edge region comprises a plurality of opening edge region segments arranged spaced apart from another circumferentially about an opening centre axis (M) of the base wall opening and wherein circumferential recesses are formed in the essentially plane base wall region between opening edge region segments succeeding each other in the circumferential direction, wherein the chambers separated by the at least one base wall are in exhaust gas exchange communication via the circumferential recesses, - the opening edge region has a first edge section adjoining the essentially plane base wall region in a first bending region and a second edge section adjoining the first edge section in a second bending region , wherein a radial spacing of the first edge section from an opening centre axis (M) of the base wall opening decreases in the direction from the first bending region to the second bending region , and - a radial spacing of the second edge section from the opening centre axis (M) increases in the direction away from the second bending region . - the opening edge region is designed so that is interrupted circumferentially about an opening centre axis (M) of the base wall opening , wherein the opening edge region comprises a plurality of opening edge region segments arranged spaced apart from another circumferentially about an opening centre axis (M) of the base wall opening and wherein circumferential recesses are formed in the essentially plane base wall region between opening edge region segments succeeding each other in the circumferential direction, wherein the chambers separated by the at least one base wall are in exhaust gas exchange communication via the circumferential recesses, - the opening edge region has a first edge section adjoining the essentially plane base wall region in a first bending region and a second edge section adjoining the first edge section in a second bending region , wherein a radial spacing of the first edge section from an opening centre axis (M) of the base wall opening decreases in the direction from the first bending region to the second bending region , and - a radial spacing of the second edge section from the opening centre axis (M) increases in the direction away from the second bending region .
Composition consisting essentially of a mixture: a- of three strains of bacteria of the genius Bacillus subtilis, and b- a strain of lactic bacteria, for its use for the prevention or treatment of infections contracted by a newborn livestock mammal at the time of birth, in particular digestive or respiratory infections said composition being applied to the perineum and/or to the teat(s) of the female that is going to give birth or has given birth to said newborn livestock mammal, the application being carried out before and/or after parturition, said mixture consisting essentially of - the following three Bacillus subtilis strains: NOL01, NOL02, NOL03, said strains being deposited in the CNCM under the numbers: CNCM I - 4606, CNCM I-5043 and CNCM I - 4607, respectively, and - the lactic bacteria strain: Lactococcus lactis spp lactis 1 strain NOL11, said strain being deposited in the CNCM under number CNCM I - 4609. a- of three strains of bacteria of the genius Bacillus subtilis, and b- a strain of lactic bacteria, for its use for the prevention or treatment of infections contracted by a newborn livestock mammal at the time of birth, in particular digestive or respiratory infections said composition being applied to the perineum and/or to the teat(s) of the female that is going to give birth or has given birth to said newborn livestock mammal, the application being carried out before and/or after parturition, said mixture consisting essentially of - the following three Bacillus subtilis strains: NOL01, NOL02, NOL03, said strains being deposited in the CNCM under the numbers: CNCM I - 4606, CNCM I-5043 and CNCM I - 4607, respectively, and - the lactic bacteria strain: Lactococcus lactis spp lactis 1 strain NOL11, said strain being deposited in the CNCM under number CNCM I - 4609. - the following three Bacillus subtilis strains: NOL01, NOL02, NOL03, said strains being deposited in the CNCM under the numbers: CNCM I - 4606, CNCM I-5043 and CNCM I - 4607, respectively, and - the lactic bacteria strain: Lactococcus lactis spp lactis 1 strain NOL11, said strain being deposited in the CNCM under number CNCM I - 4609.
A wired system (X1) adapted to link a drone to its ground base, this system comprising: - said ground base, - at least one electrical wire or one data transfer wire or one mechanical holding wire, - at least one drum for winding the wire, - at least one electric motor for driving the drum, - at least one mechanism for blocking the wire, the system being characterized in that it includes at the same time: - a setting device enabling the user to define a maximum length of the unwound wire, - a device for automatic blockage at the defined maximum length, the blocking device being monodirectional: it prevents exceeding the maximum length, but the rewinding of the wire on its drum remains possible. - said ground base, - at least one electrical wire or one data transfer wire or one mechanical holding wire, - at least one drum for winding the wire, - at least one electric motor for driving the drum, - at least one mechanism for blocking the wire, the system being characterized in that it includes at the same time: - a setting device enabling the user to define a maximum length of the unwound wire, - a device for automatic blockage at the defined maximum length, the blocking device being monodirectional: it prevents exceeding the maximum length, but the rewinding of the wire on its drum remains possible.
A process for preparing a chemical compound comprising reacting rapamycin with an alkyl fluoroalkyl sulfonate, wherein the alkyl part of the alkyl fluoroalkyl sulfonate can be further substituted; in the presence of a base, wherein the base is of formula NR1R2R3: • R1 and R2 are independently 2-methylpropyl or isopropyl; and • R3 is -CH(R4)(R5), wherein R4 and R5 are identical or different alkyls that are optionally connected to form a ring, and wherein the alkyl is a straight or branched carbon chain of C2-C10-alkyl. • R1 and R2 are independently 2-methylpropyl or isopropyl; and • R3 is -CH(R4)(R5), wherein R4 and R5 are identical or different alkyls that are optionally connected to form a ring,
A combine harvester , comprising a threshing device as well as a chopping device which are driven and operatively connected together by a drive system which is configured as a belt drive and driven by a driving engine , as well as a reversing device for reversing the threshing device , characterized in that the reversing device is disposed on a drive shaft of the chopping device .
Electrical connection device for a lightning protection system in a wind turbine , the electrical connection device being mountable to a first component of the wind turbine and comprising a sliding connection assembly providing when mounted to a wind turbine an electrical connection between the electrical connection device and a respective electrical connector of a second component of the wind turbine , wherein the first and second components are movable relative to each other, and a spark gap element providing a spark gap between the first and second components, wherein the sliding connection assembly comprises a holder and a sliding connector mounted, in particular spring-loadedly, to the holder , wherein the spark gap element is provided as a part of the holder ; and characterised in that the holder comprises a receiving portion for the sliding connector at one side, wherein the receiving portion and thus the sliding connector is flanked by two spark gap elements . wherein the spark gap element is provided as a part of the holder ; and characterised in that the holder comprises a receiving portion for the sliding connector at one side, wherein the receiving portion and thus the sliding connector is flanked by two spark gap elements .
A method for determining the life of components of a wind turbine or similar according to its location, comprising the following phases: Phase 1: obtaining an aeroelastic model of the wind turbine according to its design conditions; Phase 2: obtaining an aeroelastic model of the actual wind turbine arranged at its site; Phase 3: determining the specific wind conditions at the site of the wind turbine; Phase 4: determining the specific operating conditions of the wind turbine at its site; Phase 5: determining the design fatigue loads on the components of the wind turbine modeled in phase 1 according to regulatory operating conditions and wind conditions; Phase 6: determining the actual fatigue loads on the components of the wind turbine modeled in phase 2 according to the wind conditions and operating conditions determined in phases 3 and 4; and Phase 7: determining the life of each component of the wind turbine at the site of the wind turbine, reintegrating the actual fatigue loads calculated in phase 6 until the design fatigue loads calculated in phase 5 are reached; characterized in that in phase 3, the wind speed values at the site of the wind turbine are determined; the main wind directions striking the wind turbine are determined, and the air density at the site is determined. Phase 1: obtaining an aeroelastic model of the wind turbine according to its design conditions; Phase 2: obtaining an aeroelastic model of the actual wind turbine arranged at its site; Phase 3: determining the specific wind conditions at the site of the wind turbine; Phase 4: determining the specific operating conditions of the wind turbine at its site; Phase 5: determining the design fatigue loads on the components of the wind turbine modeled in phase 1 according to regulatory operating conditions and wind conditions; Phase 6: determining the actual fatigue loads on the components of the wind turbine modeled in phase 2 according to the wind conditions and operating conditions determined in phases 3 and 4; and Phase 7: determining the life of each component of the wind turbine at the site of the wind turbine, reintegrating the actual fatigue loads calculated in phase 6 until the design fatigue loads calculated in phase 5 are reached;
A wearable device for assessing the in-use effectiveness of a respiratory mask, the wearable device comprising: a first condensation particle counter having a first inlet port, a first growth column, and a first optical element for counting particles detected at the first inlet port, the first condensation particle counter configured to provide a first signal corresponding to the particles counted at the first inlet port; a second condensation particle counter having a second inlet port, a second growth column, and a second optical element for counting particles detected at the second inlet port, the second condensation particle counter configured to provide a second signal corresponding to the particles counted at the second inlet port; wherein the first condensation particle counter and the second condensation particle counter are configured to include a wick in which the wick is wetted by water; a differential pressure sensor coupled to the first inlet port and coupled to the second inlet port, the sensor configured to provide a pressure signal; a processor coupled to memory and configured to receive the first signal, the second signal, and the pressure signal and generate an output corresponding to a ratio of the first signal and the second signal and correlate the ratio with the pressure signal; and a housing configured to receive the first condensation particle counter and the second condensation particle counter , the differential pressure sensor, the processor, and the memory. a first condensation particle counter having a first inlet port, a first growth column, and a first optical element for counting particles detected at the first inlet port, the first condensation particle counter configured to provide a first signal corresponding to the particles counted at the first inlet port; a second condensation particle counter having a second inlet port, a second growth column, and a second optical element for counting particles detected at the second inlet port, the second condensation particle counter configured to provide a second signal corresponding to the particles counted at the second inlet port; wherein the first condensation particle counter and the second condensation particle counter are configured to include a wick in which the wick is wetted by water; a differential pressure sensor coupled to the first inlet port and coupled to the second inlet port, the sensor configured to provide a pressure signal; a processor coupled to memory and configured to receive the first signal, the second signal, and the pressure signal and generate an output corresponding to a ratio of the first signal and the second signal and correlate the ratio with the pressure signal; and a housing configured to receive the first condensation particle counter and the second condensation particle counter , the differential pressure sensor, the processor, and the memory.
Load handling equipment comprising vertical support structures between which transport means are mounted to be moved along a horizontal support structure between the vertical support structures to move a load relative to the support structures , and a distance-measuring device capable of generating distance measurement data is mounted in at least one of said support structures, whereby the distance-measuring device is arranged to generate distance measurement data on at least two of the following objects relative to their mounting place, the objects comprising: a vehicle positioned beneath or on a side of the load handling equipment , the door of a vehicle, a person, a load , a reflector and transport means for moving a load, characterized in that a fan formed by the measurement directions of the distance-measuring device is configured to be adjusted to be large, when a traffic lane is measured by the distance-measuring device while data is being received on a vehicle approaching the traffic lane, and focused, when the vehicle has stopped on the traffic lane where it is loaded or unloaded, such that the spread angle of the large fan is greater than the spread angle of the focused fan.
A magnetic bearing assembly, comprising a shaft , a magnetic bearing installed on the shaft and a protective structure for the magnetic bearing for protecting the magnetic bearing on the shaft from generating friction with the shaft , a working gap being formed between a bearing iron core of the magnetic bearing and the shaft along the radial direction, wherein the protective structure comprises: a first radial bearing protective component , sleeved on the shaft and corresponding to the position of the magnetic bearing ; and a second radial bearing protective component , sleeved on the shaft and corresponding to the position of the magnetic bearing ; characterized in that : the protective structure further comprises a sleeve detachably sleeved on the shaft , and the first radial bearing protective component and the second radial bearing protective component are both arranged at the sleeve , a first gap is formed between an inner ring surface of the first radial bearing protective component and an outer ring surface of the sleeve , and a second gap is formed between the inner ring surface of the second radial bearing protective component and the outer ring surface of the sleeve ; and the height of the working gap is greater than the height of the second gap , and the height of the second gap is greater than the height of the first gap . a first radial bearing protective component , sleeved on the shaft and corresponding to the position of the magnetic bearing ; and a second radial bearing protective component , sleeved on the shaft and corresponding to the position of the magnetic bearing ; characterized in that : the protective structure further comprises a sleeve detachably sleeved on the shaft , and the first radial bearing protective component and the second radial bearing protective component are both arranged at the sleeve , a first gap is formed between an inner ring surface of the first radial bearing protective component and an outer ring surface of the sleeve , and a second gap is formed between the inner ring surface of the second radial bearing protective component and the outer ring surface of the sleeve ; and the height of the working gap is greater than the height of the second gap , and the height of the second gap is greater than the height of the first gap . the protective structure further comprises a sleeve detachably sleeved on the shaft , and the first radial bearing protective component and the second radial bearing protective component are both arranged at the sleeve , a first gap is formed between an inner ring surface of the first radial bearing protective component and an outer ring surface of the sleeve , and a second gap is formed between the inner ring surface of the second radial bearing protective component and the outer ring surface of the sleeve ; and the height of the working gap is greater than the height of the second gap , and the height of the second gap is greater than the height of the first gap .
A thermoplastic composition comprising a polymer component comprising: a) At least one butene-1 (co)polymer, b) At least one heterophasic propylene copolymer, and c) At least one propylene-based elastomer, wherein the at least one butene-1 (co)polymer has a content of butene-1 derived units of at least 70 wt.-%, preferably at least 75 wt.-%. a) At least one butene-1 (co)polymer, b) At least one heterophasic propylene copolymer, and c) At least one propylene-based elastomer, wherein the at least one butene-1 (co)polymer has a content of butene-1 derived units of at least 70 wt.-%, preferably at least 75 wt.-%.
A rotary impulse sealer for forming a series of discrete bonds in a bondable material , the rotary impulse sealer comprising: a roller rotatable about an axis, the roller having a roller body and a plurality of seal bars extending radially outwardly from the roller and spaced apart around the roller body , at least one of the seal bars having a body and a selectively heatable heating element extending along at least a part of a length of the seal bar body ; a tensioned belt for introducing the bondable material to the roller ; wherein the roller is rotatable through a pre-heating pressure application region (A) of the rotary impulse sealer in which the at least one seal bar is adapted to apply pressure to a bond area of the bondable material , followed by a heating region (B) of the rotary impulse sealer in which the at least one seal bar is adapted to heat the bond area , the regions being stationary with respect to the rotation of the roller ; wherein the speed of rotation of the roller is adjustable relative to the bondable material such that the at least one seal bar moves at substantially the same speed as the bondable material while the seal bar applies pressure to the bond area . a roller rotatable about an axis, the roller having a roller body and a plurality of seal bars extending radially outwardly from the roller and spaced apart around the roller body , at least one of the seal bars having a body and a selectively heatable heating element extending along at least a part of a length of the seal bar body ; a tensioned belt for introducing the bondable material to the roller ; wherein the roller is rotatable through a pre-heating pressure application region (A) of the rotary impulse sealer in which the at least one seal bar is adapted to apply pressure to a bond area of the bondable material , followed by a heating region (B) of the rotary impulse sealer in which the at least one seal bar is adapted to heat the bond area , the regions being stationary with respect to the rotation of the roller ; wherein the speed of rotation of the roller is adjustable relative to the bondable material such that the at least one seal bar moves at substantially the same speed as the bondable material while the seal bar applies pressure to the bond area .
Vehicle comprising a handle fixed to a wall defining an inner space of said vehicle wherein said handle comprises charging means for electronic devices and handling means configured for positioning said charging means on said handle in an adjustable manner, characterised in that said handle is hollow and comprises electrical connection means housed inside said handle configured to supply electrical energy to said charging means .
An external charger for wirelessly providing energy to an implantable medical device (IMD) , comprising: a charging coil configured when energized by a drive signal to produce a magnetic field to wirelessly provide energy to the IMD; a sense coil , wherein the sense coil is configured to be induced by the magnetic field with an induced signal affected by a position of the charging coil with respect to the IMD; and control circuitry ; characterized in that the control circuitry is configured to determine a phase angle between the induced signal and the drive signal, and to determine, using the phase angle, the position of the charging coil with respect to the IMD a charging coil configured when energized by a drive signal to produce a magnetic field to wirelessly provide energy to the IMD; a sense coil , wherein the sense coil is configured to be induced by the magnetic field with an induced signal affected by a position of the charging coil with respect to the IMD; and control circuitry ;