mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for washing containers comprising: - a support configured to be placed on an open upper edge of a container, - a translating unit movable with respect to the support inside a container along a vertical direction between a raised position and a lowered position, and vice versa, - a rotating element rotatably carried by the translating unit, wherein the rotating element carries at least one first nozzle arranged to emit a jet of washing liquid directed onto an inner side surface of a container and at least one second nozzle (32, 34) arranged to emit a jet of washing liquid directed onto a horizontal bottom surface of the container, - a motor unit that rotates a driving screw that extends along a vertical direction, wherein the driving screw engages a nut fixed with respect to the stationary support, and has a lower end that is axially fixed and characterised in that the lower end is freely rotatable with respect to the translating unit, and in that the lower end of the driving screw is connected to the rotating element through a gear transmission (56, 58). - a support configured to be placed on an open upper edge of a container, - a translating unit movable with respect to the support inside a container along a vertical direction between a raised position and a lowered position, and vice versa, - a rotating element rotatably carried by the translating unit, wherein the rotating element carries at least one first nozzle arranged to emit a jet of washing liquid directed onto an inner side surface of a container and at least one second nozzle (32, 34) arranged to emit a jet of washing liquid directed onto a horizontal bottom surface of the container, - a motor unit that rotates a driving screw that extends along a vertical direction, wherein the driving screw engages a nut fixed with respect to the stationary support, and has a lower end that is axially fixed and characterised in that the lower end is freely rotatable with respect to the translating unit, and in that the lower end of the driving screw is connected to the rotating element through a gear transmission (56, 58).
A wound dressing (10, 210) comprising: a backing layer; a wound contact layer having a first surface for directly contacting a wound bed and a second surface facing the backing layer, the wound contact layer comprising gel forming fibers; and, a superabsorbent layer, wherein the superabsorbent layer is located between the backing layer and the second surface of the wound contact layer, characterized in that the superabsorbent layer comprises a blend of sodium polyacrylate fibres and polyester fibres. a backing layer; a wound contact layer having a first surface for directly contacting a wound bed and a second surface facing the backing layer, the wound contact layer comprising gel forming fibers; and, a superabsorbent layer, wherein the superabsorbent layer is located between the backing layer and the second surface of the wound contact layer, characterized in that the superabsorbent layer comprises a blend of sodium polyacrylate fibres and polyester fibres.
A light-emitting device comprising: a light-emitting element; first phosphors excited by light emitted by the light-emitting element to emit light; and second phosphors excited by the light emitted by the light-emitting element or the light emitted by the first phosphors to emit light, characterized in that inclination of a straight line on a chromaticity diagram linking chromaticity coordinates of the light emitted by the first phosphors and chromaticity coordinates of the light emitted by the light-emitting element is adapted to be equal to inclination of an isotemperature line with a predetermined color temperature of light obtained by mixing the light emitted by the light-emitting element, the light emitted by the first phosphors, and the light emitted by the second phosphors.
A method for moisturizing soil at an open construction site, comprising: determining, by a soil moisture control system, a target soil moisture level for the soil at the open construction site; measuring, by the soil moisture control system, a current soil moisture level of a location within the open construction site with a moisture sensor while the moisture control system is moving along a predetermined path across the open construction site; storing, by the moisture control system, the current soil moisture level of the location in memory; determining, by the soil moisture control system, a target volume of water for achieving the target soil moisture level at the location based on the current soil moisture level at the location; calculating, by the soil moisture control system, a target application rate to achieve the target soil moisture level at the location based on the target volume of water; and applying, by the soil moisture control system, the target volume of water at the target application rate to the location when the system is positioned to dispense water at the location of the open construction site. determining, by a soil moisture control system, a target soil moisture level for the soil at the open construction site; measuring, by the soil moisture control system, a current soil moisture level of a location within the open construction site with a moisture sensor while the moisture control system is moving along a predetermined path across the open construction site; storing, by the moisture control system, the current soil moisture level of the location in memory; determining, by the soil moisture control system, a target volume of water for achieving the target soil moisture level at the location based on the current soil moisture level at the location; calculating, by the soil moisture control system, a target application rate to achieve the target soil moisture level at the location based on the target volume of water; and applying, by the soil moisture control system, the target volume of water at the target application rate to the location when the system is positioned to dispense water at the location of the open construction site.
A cross fire tube installation/removal apparatus for use with a combustor of a gas turbine engine, comprising: a cross fire tube assembly; the cross fire tube assembly comprising a sleeve (120, 130) with a tube groove (170, 180) therein; and a cross fire tube tool; the cross fire tube tool comprising a spring with a spring flange; wherein the spring flange is sized to engage the tube groove (170, 180), wherein the cross fire tube tool comprises a locking knob and a reaction arm positioned on one end of the spring, wherein the spring is maneuverable within the reaction arm via the locking knob. a cross fire tube assembly; the cross fire tube assembly comprising a sleeve (120, 130) with a tube groove (170, 180) therein; and a cross fire tube tool; the cross fire tube tool comprising a spring with a spring flange; wherein the spring flange is sized to engage the tube groove (170, 180), wherein the cross fire tube tool comprises a locking knob and a reaction arm positioned on one end of the spring, wherein the spring is maneuverable within the reaction arm via the locking knob.
Method for managing a torque applied to an output shaft of a heat engine comprising combustion chambers in each of which is mounted a piston connected to the output shaft in order to apply a torque thereto, the output shaft also being connected to a rotating machine associated with a management member, said method comprising the steps of detecting conditions of deactivation of a combustion chamber and of controlling the rotating machine in order to apply to the output shaft, prior to the deactivation of a combustion chamber, and after the deactivation of the combustion chamber, a compensating torque tending to cause a resultant torque applied to the output shaft to change toward a deactivation torque applied by the heat engine to the output shaft after deactivation of the combustion chamber, said method being characterized in that: - prior to the deactivation, the compensating torque is a retardation torque that changes linearly in an increasing manner from a value of zero, until deactivation, and - after the deactivation, the compensating torque is an acceleration torque that changes linearly in a decreasing value to a value of zero, from deactivation. - prior to the deactivation, the compensating torque is a retardation torque that changes linearly in an increasing manner from a value of zero, until deactivation, and - after the deactivation, the compensating torque is an acceleration torque that changes linearly in a decreasing value to a value of zero, from deactivation.
Injector nose for a turbomachine, comprising: - a primary fuel circuit terminating in a fuel-ejection nozzle emerging on an injection axis, and - a secondary fuel circuit comprising an annular-shaped terminal fuel-ejection part arranged around the fuel-ejection nozzle, wherein an upstream part of the primary fuel circuit, housed in the injector nose, comprises an annular channel extending around the secondary fuel circuit, characterised in that the annular channel extending around the secondary fuel circuit is delimited by an external wall of the injector nose, and in that the injector nose further comprises air inlet channels extending through the annular channel of the primary fuel circuit and having respective inlets opening in the external wall and respective outlets emerging in an annular air-injection channel arranged radially to the inside with respect to the terminal fuel-ejection part, around the fuel-ejection nozzle, and cooperating with the terminal fuel-ejection part in order to form an aerodynamic secondary injector. - a primary fuel circuit terminating in a fuel-ejection nozzle emerging on an injection axis, and - a secondary fuel circuit comprising an annular-shaped terminal fuel-ejection part arranged around the fuel-ejection nozzle, wherein an upstream part of the primary fuel circuit, housed in the injector nose, comprises an annular channel extending around the secondary fuel circuit, characterised in that the annular channel extending around the secondary fuel circuit is delimited by an external wall of the injector nose, and in that the injector nose further comprises air inlet channels extending through the annular channel of the primary fuel circuit and having respective inlets opening in the external wall and respective outlets emerging in an annular air-injection channel arranged radially to the inside with respect to the terminal fuel-ejection part, around the fuel-ejection nozzle, and cooperating with the terminal fuel-ejection part in order to form an aerodynamic secondary injector.
An imaging agent comprising a compound of formula I: wherein: X is a bond or a linker connected to an N-terminus of a peptide substrate; Y is a bond or a linker; RL is a radiolabel; Sub is a peptide substrate; CPV is selected from the group consisting of a saccharide or a derivative thereof, polyethyleneimine, PEG, PEI-PEG and PEG-PEI; Z is a capping group; n, and p are independently 0-4; s is 1-4; t is 0 or 1; and u is 1 - 2, or a pharmaceutically acceptable salt thereof, wherein, X is X 2 X 3 X 4, wherein X 2 is a (C 2 - 6)alkylenyl group or aryl, X 3 is a heteroaryl group or -C=N-O-, X 4 is a (C 1 - 10)alkylenyl group, wherein one of the (C 1 - 10)alkylenyl carbon atoms is optionally replaced with -CO-; RL is selected from the group consisting of 11 C or 18 F; and Sub is selected from the group consisting of-DEVD-, -DE( N -alkyl V)D-, - DEVDD-, -DNLD-, -DQTD, -DMQD-, -YVDA-, -YEVD-, -LEVD-, -LEHD, -DQMD-, VDQQD-, -VDVDA-, -VEID-, -VQVD-, -YVADGW-, -VDVAD-, -VDVADGW-, - RGVDQQDGKNHW-, -GVDQQDGKNW, -VDQQDGKNW-, -DQQDGKNW-, - QQDGKNW-, -VDQQDGKW-, -VDQQDGW-, -VDQQDW-, -WEHD-, -YVAD-, - AEVD-, -IETD-, -AEVD-, -WEHD-, -VEHD-, -XEXDAMC-, -DEVDAMC-, - VEHDAMC-, -VADFMK-, -YEVDGW-, -LEVDGW-, -VDQMDGW-, -VDVADGW-, - VQVDGW-, VDQVDGW-, -DEVDAMC-, -VD-fmk-, -VAD-fmk-, -YVAD-fmk-, -ID-fmk-, -L-D-fmk, -FD-fmk-, -AD-fmk-, -GD-fmk-, -KD-fmk-, -ED-fmk- and - DEVDAFC-; wherein fmk is fluoromethylketone m is 1-4. X is a bond or a linker connected to an N-terminus of a peptide substrate; Y is a bond or a linker; RL is a radiolabel; Sub is a peptide substrate; CPV is selected from the group consisting of a saccharide or a derivative thereof, polyethyleneimine, PEG, PEI-PEG and PEG-PEI; Z is a capping group; n, and p are independently 0-4; s is 1-4; t is 0 or 1; and u is 1 - 2, or a pharmaceutically acceptable salt thereof, wherein, X is X 2 X 3 X 4, wherein X 2 is a (C 2 - 6)alkylenyl group or aryl, X 3 is a heteroaryl group or -C=N-O-, X 4 is a (C 1 - 10)alkylenyl group, wherein one of the (C 1 - 10)alkylenyl carbon atoms is optionally replaced with -CO-; RL is selected from the group consisting of 11 C or 18 F; and Sub is selected from the group consisting of-DEVD-, -DE( N -alkyl V)D-, - DEVDD-, -DNLD-, -DQTD, -DMQD-, -YVDA-, -YEVD-, -LEVD-, -LEHD, -DQMD-, VDQQD-, -VDVDA-, -VEID-, -VQVD-, -YVADGW-, -VDVAD-, -VDVADGW-, - RGVDQQDGKNHW-, -GVDQQDGKNW, -VDQQDGKNW-, -DQQDGKNW-, - QQDGKNW-, -VDQQDGKW-, -VDQQDGW-, -VDQQDW-, -WEHD-, -YVAD-, - AEVD-, -IETD-, -AEVD-, -WEHD-, -VEHD-, -XEXDAMC-, -DEVDAMC-, - VEHDAMC-, -VADFMK-, -YEVDGW-, -LEVDGW-, -VDQMDGW-, -VDVADGW-, - VQVDGW-, VDQVDGW-, -DEVDAMC-, -VD-fmk-, -VAD-fmk-, -YVAD-fmk-, -ID-fmk-, -L-D-fmk, -FD-fmk-, -AD-fmk-, -GD-fmk-, -KD-fmk-, -ED-fmk- and - DEVDAFC-; wherein fmk is fluoromethylketone m is 1-4.
An audio/video (A/V) recording and communication doorbell system, comprising: an A/V recording and communication doorbell including a camera, a speaker, a microphone, a button, a signaling device, a shunt, and an electronic switch, wherein the A/V recording and communication doorbell is connected to an external power source; characterised in that the A/V recording and communication doorbell is configured to draw power from the power source such that the power flows through the signaling device and the shunt connected in parallel with the signaling device, wherein the shunt is in a low impedance state; and when the button is depressed, the electronic switch is configured to close, thereby transitioning the shunt to a high impedance state and diverting power from the power source through the signaling device to cause the signaling device to emit a sound.
Curing agent composition comprising an amine mixture and an at least one salt as an accelerator, the salt used as an accelerator being selected from the group consisting of salts of nitric acid, salts of nitrous acid, salts of halogens, salts of trifluoromethanesulphonic acid, and combinations thereof, characterized in that the amine mixture comprises 5 to 50 wt.% of diaminomethylcyclohexane and at least 25 wt.% of 1,3-cyclohexanebis(methylamine) based on the total weight of the amine mixture.
A method of continuous compression molding a consolidated thermoplastic matrix composite material, the method comprising: providing a thermoplastic matrix composite material 'TMCM', which includes a thermoplastic material, to a continuous compression molding machine 'CCMM'; and during the providing: (i) heating the TMCM, within a heat zone of the CCMM, to an initial temperature that is above a melt temperature of the thermoplastic material; (ii) cooling and consolidating the TMCM, within a consolidation zone of the CCMM, to a subsequent temperature; (iii) relaxing stress within the TMCM, within a stress relaxation zone of the CCMM, at a stress relaxation temperature; (iv) demolding the TMCM from a mold of the CCMM within a demold zone of the CCMM and at a demold temperature that is greater than a glass transition temperature of the thermoplastic material; and (v) periodically compressing the TMCM, with the mold of the CCMM, to form the TMCM to a desired shape for the consolidated thermoplastic matrix composite material. providing a thermoplastic matrix composite material 'TMCM', which includes a thermoplastic material, to a continuous compression molding machine 'CCMM'; and during the providing: (i) heating the TMCM, within a heat zone of the CCMM, to an initial temperature that is above a melt temperature of the thermoplastic material; (ii) cooling and consolidating the TMCM, within a consolidation zone of the CCMM, to a subsequent temperature; (iii) relaxing stress within the TMCM, within a stress relaxation zone of the CCMM, at a stress relaxation temperature; (iv) demolding the TMCM from a mold of the CCMM within a demold zone of the CCMM and at a demold temperature that is greater than a glass transition temperature of the thermoplastic material; and (v) periodically compressing the TMCM, with the mold of the CCMM, to form the TMCM to a desired shape for the consolidated thermoplastic matrix composite material. (i) heating the TMCM, within a heat zone of the CCMM, to an initial temperature that is above a melt temperature of the thermoplastic material; (ii) cooling and consolidating the TMCM, within a consolidation zone of the CCMM, to a subsequent temperature; (iii) relaxing stress within the TMCM, within a stress relaxation zone of the CCMM, at a stress relaxation temperature; (iv) demolding the TMCM from a mold of the CCMM within a demold zone of the CCMM and at a demold temperature that is greater than a glass transition temperature of the thermoplastic material; and (v) periodically compressing the TMCM, with the mold of the CCMM, to form the TMCM to a desired shape for the consolidated thermoplastic matrix composite material.
Use of a compatibilizer for adjusting a dispersion diameter of a dispersed phase in a thermoplastic resin composition that is obtained by mixing a polyolefin resin, a polyamide resin, and the compatibilizer and has a continuous phase composed of the polyolefin resin and a dispersed phase dispersed in the continuous phase and composed of the polyamide resin characterized in that the compatibilizer is a polymer having a reactive group that reacts with the polyamide resin, and that an amount of the polymer to be mixed based on a total of the polyolefin resin and the polyamide resin is varied to adjust a dispersion diameter of the dispersed phase.
A method comprising: detecting that an electronic device is turned on to be activated for a first time; wherein if it is detected that the electronic device is activated for a first time, the method further comprises: detecting a current location of the electronic device; detecting whether an activation of the electronic device is prohibited at the current location; and turning off the electronic device when the activation of the electronic device is prohibited. detecting that an electronic device is turned on to be activated for a first time; wherein if it is detected that the electronic device is activated for a first time, the method further comprises: detecting a current location of the electronic device; detecting whether an activation of the electronic device is prohibited at the current location; and turning off the electronic device when the activation of the electronic device is prohibited. detecting a current location of the electronic device; detecting whether an activation of the electronic device is prohibited at the current location; and turning off the electronic device when the activation of the electronic device is prohibited.
A method of estimating a timing location, characterized in that, the method comprises: obtaining, for each preamble subsequence, a detection window where a peak value of a correlation value power of each preamble subsequence is located; accumulating correlation value powers of all corresponding positions in the detection window obtained of each preamble subsequence to obtain a cumulative sum of the correlation value powers corresponding to each position, wherein the correlation value powers of each preamble subsequence used for the accumulation are correlation value powers in a detection window where a peak value of a respective correlation value power of each preamble subsequence is located; determining a peak power and a noise power according to the cumulative sum of the correlation value powers; estimating the timing location according to the peak power and the noise power; wherein the accumulating correlation value powers of all corresponding positions in the detection window obtained of each preamble subsequence to obtain a cumulative sum of the correlation value powers corresponding to each position, comprises: if there are M preamble subsequences, the cumulative sum of the correlation value powers of the M preamble subsequences is: P all, comb k = ∑ m = 1 M P all, m k, wherein P all,m ( k) represents a correlation value power of a k th sample value of a detection window where an m th preamble subsequence is located, 1≤k≤Ncs, and Ncs is the length of the detection window. obtaining, for each preamble subsequence, a detection window where a peak value of a correlation value power of each preamble subsequence is located; accumulating correlation value powers of all corresponding positions in the detection window obtained of each preamble subsequence to obtain a cumulative sum of the correlation value powers corresponding to each position, wherein the correlation value powers of each preamble subsequence used for the accumulation are correlation value powers in a detection window where a peak value of a respective correlation value power of each preamble subsequence is located; determining a peak power and a noise power according to the cumulative sum of the correlation value powers; estimating the timing location according to the peak power and the noise power; wherein the accumulating correlation value powers of all corresponding positions in the detection window obtained of each preamble subsequence to obtain a cumulative sum of the correlation value powers corresponding to each position, comprises: if there are M preamble subsequences, the cumulative sum of the correlation value powers of the M preamble subsequences is: P all, comb k = ∑ m = 1 M P all, m k, wherein P all,m ( k) represents a correlation value power of a k th sample value of a detection window where an m th preamble subsequence is located, 1≤k≤Ncs, and Ncs is the length of the detection window.
Method for operating an electric or hybrid vehicle with shiftable transmission, in which at least one electric motor is employed for propelling the vehicle, and in which a shift operation is performed in the transmission of the vehicle upon reaching a shift threshold, wherein a value specifying the shift threshold is varied depending on at least one parameter, characterized in that a speed (26, 36) is used as the at least one parameter, at which a power provided by the at least one electric motor for propelling the vehicle has a maximum (30, 38), wherein the provided power decreases more or less abruptly upon exceeding this speed.