mhurhangee/ep-ind-claims huggingface dataset:
Plug connector with a housing for receiving at least an electrical cable with at least an electric wire and a sheathing, a holding means being provided on the housing as a strain relief for the cable, whereby a holding element is fixed on the housing as a holding means, whereby the housing comprises a first and a second housing part (12, 14), whereby a locking piece is arranged at the second housing part in a rotatable manner, whereby the second housing part comprises a holder, whereby the locking piece has a recess for receiving a part of the holder of the housing, the locking piece can be fitted on the holder in a starting position in which at least a part of the holder is pushed into the recess, and the locking piece can be moved from the starting position into an assembly position via a rotation, the plug connector being characterized in that the holding element has a flexible holding tab (31, 32, 33, 34, 35), the holding tab being arranged at an angle inclined to a longitudinal direction of a cable opening for the cable, whereby one edge of the holding tab is provided for engagement in the sheathing of the cable, and in that during the rotation a flexibly mounted catch projection of the holding element passes over a stop face of the locking piece and thereby the catch projection is pushed in the radial direction from a starting position, wherein after passing over the stop face the catch projection again springs into its starting position and the locking piece is moved into an assembly position, in that a rotation back of the locking piece from the assembly position into its starting position is blocked by the catch projection, which mates with a catch edge on the stop face and blocks a rotation of the locking piece into the starting position, whereby the holding element securely fixes the locking piece on the second housing part.
Apparatus for cleaning drink-containers, • with a transport device, which transports the drink-containers along a predetermined transport path, • with a first cleaning device, which acts upon the drink-containers with a first flowable medium for cleaning thereof, • with a second cleaning device, which is arranged after the first cleaning device in the transport direction of the drink-containers and which acts upon the drink-containers with a second flowable medium for cleaning thereof, • wherein the apparatus has a third cleaning device for acting upon the containers with freshwater and a fourth cleaning device for acting upon the containers with a cold medium, and • wherein the apparatus has at least one rotating device, which rotates the cleaning device (4, 6, 14, 16) or the drink-containers with respect to a longitudinal axis during their transport and in particular also during their cleaning with, in order to enable a relative rotation between the drink-containers and at least one cleaning device (4, 6, 14, 16), characterized in that • at least one cleaning device (4, 6, 14, 16) is suitable and intended to act upon the containers with a flowable medium which has a temperature of less than - 10°C, wherein the cleaning device which acts upon the containers with less than - 10°C is the fourth cleaning device and • for the purpose of cleaning at least one cleaning device (4, 6, 14, 16) has a cleaning head which can be introduced into an interior of the containers, and which is moveable in a longitudinal direction of the drink-containers to be cleaned. • with a transport device, which transports the drink-containers along a predetermined transport path, • with a first cleaning device, which acts upon the drink-containers with a first flowable medium for cleaning thereof, • with a second cleaning device, which is arranged after the first cleaning device in the transport direction of the drink-containers and which acts upon the drink-containers with a second flowable medium for cleaning thereof, • wherein the apparatus has a third cleaning device for acting upon the containers with freshwater and a fourth cleaning device for acting upon the containers with a cold medium, and • wherein the apparatus has at least one rotating device, which rotates the cleaning device (4, 6, 14, 16) or the drink-containers with respect to a longitudinal axis during their transport and in particular also during their cleaning with, in order to enable a relative rotation between the drink-containers and at least one cleaning device (4, 6, 14, 16), • at least one cleaning device (4, 6, 14, 16) is suitable and intended to act upon the containers with a flowable medium which has a temperature of less than - 10°C, wherein the cleaning device which acts upon the containers with less than - 10°C is the fourth cleaning device and • for the purpose of cleaning at least one cleaning device (4, 6, 14, 16) has a cleaning head which can be introduced into an interior of the containers, and which is moveable in a longitudinal direction of the drink-containers to be cleaned.
A hook block assembly (100, 200, 300) to accommodate varying loads to be lifted by a crane, the hook block assembly comprising: a) a plurality of sheave housings, each including a plurality of sheaves, wherein each sheave housing includes extended portions with a hole therethrough, characterised in that the hook block assembly further comprises: b) a connection link attached to the top of each sheave housing with a pivotal connection; c) two cross beams each having a plurality of brackets, each bracket with a hole therethrough; d) two shafts sized to fit within the holes of the extended portions of the sheave housings and of the plurality of brackets of each respective cross beam; e) an equalizer beam that is connectable to the two cross beams, the equalizer beam including a main eye rotatably connected thereto; f) two hook suspension side-plates that are rotatably connectable to the main eye of the equalizer beam; g) two hook suspensions (152, 154) connectable to the two hook suspension sideplates; h) two first connection beams each connectable to two or more connection links and i) a second connection beam connectable to the first connection beams. a) a plurality of sheave housings, each including a plurality of sheaves, wherein each sheave housing includes extended portions with a hole therethrough, characterised in that the hook block assembly further comprises: b) a connection link attached to the top of each sheave housing with a pivotal connection; c) two cross beams each having a plurality of brackets, each bracket with a hole therethrough; d) two shafts sized to fit within the holes of the extended portions of the sheave housings and of the plurality of brackets of each respective cross beam; e) an equalizer beam that is connectable to the two cross beams, the equalizer beam including a main eye rotatably connected thereto; f) two hook suspension side-plates that are rotatably connectable to the main eye of the equalizer beam; g) two hook suspensions (152, 154) connectable to the two hook suspension sideplates; h) two first connection beams each connectable to two or more connection links and i) a second connection beam connectable to the first connection beams. b) a connection link attached to the top of each sheave housing with a pivotal connection; c) two cross beams each having a plurality of brackets, each bracket with a hole therethrough; d) two shafts sized to fit within the holes of the extended portions of the sheave housings and of the plurality of brackets of each respective cross beam; e) an equalizer beam that is connectable to the two cross beams, the equalizer beam including a main eye rotatably connected thereto; f) two hook suspension side-plates that are rotatably connectable to the main eye of the equalizer beam; g) two hook suspensions (152, 154) connectable to the two hook suspension sideplates; h) two first connection beams each connectable to two or more connection links and i) a second connection beam connectable to the first connection beams.
A silane reactive hot melt adhesive composition comprising: a silane modified polymer and 0.1 wt.-% to 15 wt.-% of acid functional wax, further comprising an aminosilane adhesion promoter wherein the molar ratio of acid functionality from the acid functional wax and amino functionality of the aminosilane is equal to or less than 1.8.
A device for measuring a matrix potential and/or a vapour pressure in a medium to be examined, comprising: an optical waveguide apparatus, in which a narrow gap is formed which is suitable for causing a capillary effect in liquids and which is adapted to be brought into contact with the medium to be examined, wherein the gap has a water level which is dependent on the matrix potential and/or vapour pressure in the medium to be examined, and wherein the optical waveguide apparatus comprises a first component and a second component, wherein the first component and the second component each have a boundary surface (123, 125), which forms the capillary walls of the gap; a light source designed to introduce light with a predetermined input intensity into the optical waveguide apparatus such that the light is transmitted through the gap; a measuring apparatus designed to measure an output intensity of the light at a location of the optical waveguide apparatus at which the light has transmitted the gap at least once; and a computing apparatus designed to determine, on the basis of the measured output intensity, at least one parameter indicative of the matrix potential and/or the vapour pressure in the medium to be examined; characterised in that the boundary surface of the first component and the boundary surface of the second component are arranged at an acute angle to one another and therefore the gap has a tapering cross-section. an optical waveguide apparatus, in which a narrow gap is formed which is suitable for causing a capillary effect in liquids and which is adapted to be brought into contact with the medium to be examined, wherein the gap has a water level which is dependent on the matrix potential and/or vapour pressure in the medium to be examined, and wherein the optical waveguide apparatus comprises a first component and a second component, wherein the first component and the second component each have a boundary surface (123, 125), which forms the capillary walls of the gap; a light source designed to introduce light with a predetermined input intensity into the optical waveguide apparatus such that the light is transmitted through the gap; a measuring apparatus designed to measure an output intensity of the light at a location of the optical waveguide apparatus at which the light has transmitted the gap at least once; and a computing apparatus designed to determine, on the basis of the measured output intensity, at least one parameter indicative of the matrix potential and/or the vapour pressure in the medium to be examined; characterised in that the boundary surface of the first component and the boundary surface of the second component are arranged at an acute angle to one another and therefore the gap has a tapering cross-section.
A vinylidene fluoride resin fiber obtained using a plurality of vinylidene fluoride resin filaments, the fiber having a glass transition temperature of not lower than -28°C and a thermal shrinkage at 100°C of not less than 2%, wherein the inherent viscosity of the vinylidene fluoride resin is not less than 0.75 dL/g and not greater than 0.90 dL/g, wherein the glass transition temperature, the thermal shrinkage and the inherent viscosity are determined using the respective methods disclosed herein.
Radiological imaging method comprising: > 2 radiation sources with imaging directions orthogonal to each other, one frontal radiation source and one lateral radiation source, sliding vertically so as to perform vertical scanning of a standing patient along a vertical scanning direction, wherein said radiological method comprises at least one operating mode in which: > a frontal scout view is made by performing a preliminary vertical scanning of a standing patient along said vertical scanning direction by said frontal radiation source, > said frontal scout view is processed (2, 3) to identify a specific bone(s) localization within said frontal scout view, > a driving current intensity of at least said frontal radiation source is modulated along said vertical scanning direction, depending on patient thickness and on said identified specific bone(s) localization along said vertical scanning direction, > with no modulation of driving voltage intensity of said frontal radiation source along said vertical scanning direction, > said driving current intensity modulation of said frontal radiation source is performed automatically, so as to improve a compromise between: o lowering the global radiation dose received by a patient during said vertical scanning, o while keeping at a sufficient level the local image contrasts of said identified specific bone(s) localization at different imaging positions along said vertical scanning direction, for the frontal image. > 2 radiation sources with imaging directions orthogonal to each other, one frontal radiation source and one lateral radiation source, sliding vertically so as to perform vertical scanning of a standing patient along a vertical scanning direction, > a frontal scout view is made by performing a preliminary vertical scanning of a standing patient along said vertical scanning direction by said frontal radiation source, > said frontal scout view is processed (2, 3) to identify a specific bone(s) localization within said frontal scout view, > a driving current intensity of at least said frontal radiation source is modulated along said vertical scanning direction, depending on patient thickness and on said identified specific bone(s) localization along said vertical scanning direction, > with no modulation of driving voltage intensity of said frontal radiation source along said vertical scanning direction, > said driving current intensity modulation of said frontal radiation source is performed automatically, so as to improve a compromise between: o lowering the global radiation dose received by a patient during said vertical scanning, o while keeping at a sufficient level the local image contrasts of said identified specific bone(s) localization at different imaging positions along said vertical scanning direction, for the frontal image. o lowering the global radiation dose received by a patient during said vertical scanning, o while keeping at a sufficient level the local image contrasts of said identified specific bone(s) localization at different imaging positions along said vertical scanning direction, for the frontal image.
A method for desigining a multi-path amplifier, the method comprising: connecting an amplifier stage having at least two amplifier branches (4a, 4b, 4c) to a combiner stage; feeding a plurality of testing signals with one or more of a plurality of sweeping variables comprising one or more of frequency, differential input amplitude and differential input phase to the amplifier stage; measuring output signals at the output of the combiner stage depending on the plurality of testing signals; designing a structure of an input network stage for the amplifier stage using a discrete filter component synthesis, a distributed filter component synthesis, a rat-race hybrid synthesis, a cascaded rat-race hybrid with a Schiffman phase shifter synthesis and a Schiffman phase shifter synthesis on the basis of the measured output signals, the input network stage having at least one input terminal and at least two output terminals (3a, 3b, 3c), the at least two output terminals (3a, 3b, 3c) being connected to respective amplifier branches (4a, 4b, 4c) of the multi-path amplifier and having power linear output with respect to each other and with respect to the input signals at the input terminal; and combining the designed input network stage with the amplifier stage to create an efficiency-optimised multi-path amplifier, wherein the input network stage is an analog processing module comprising analog circuitry components comprising one or more of an attenuator, a differential phase shifter and a hybrid coupler, the analog circuitry components not being controllable or adjustable by a user input or by an adjustment unit. connecting an amplifier stage having at least two amplifier branches (4a, 4b, 4c) to a combiner stage; feeding a plurality of testing signals with one or more of a plurality of sweeping variables comprising one or more of frequency, differential input amplitude and differential input phase to the amplifier stage; measuring output signals at the output of the combiner stage depending on the plurality of testing signals; designing a structure of an input network stage for the amplifier stage using a discrete filter component synthesis, a distributed filter component synthesis, a rat-race hybrid synthesis, a cascaded rat-race hybrid with a Schiffman phase shifter synthesis and a Schiffman phase shifter synthesis on the basis of the measured output signals, the input network stage having at least one input terminal and at least two output terminals (3a, 3b, 3c), the at least two output terminals (3a, 3b, 3c) being connected to respective amplifier branches (4a, 4b, 4c) of the multi-path amplifier and having power linear output with respect to each other and with respect to the input signals at the input terminal; and combining the designed input network stage with the amplifier stage to create an efficiency-optimised multi-path amplifier, wherein the input network stage is an analog processing module comprising analog circuitry components comprising one or more of an attenuator, a differential phase shifter and a hybrid coupler, the analog circuitry components not being controllable or adjustable by a user input or by an adjustment unit.
A method for dynamic encryption and signing, the method being applied to a terminal and comprising: generating a series of keys and a series of signatures from native data; selecting, during session connection, a first key index which is predetermined and a first signature index which is random; locating a first key and a first signature from the series of keys and the series of signatures according to the first key index and the first signature index; signing session request data with the first signature, and encrypting the session request data with the first key and sending the encrypted session request data to a server; and receiving, from the server, session response data signed with a second signature which corresponds to a randomly selected signature index and encrypted with a second key which corresponds to a randomly selected key index, after decryption and signature verification by the server over the session request data succeed. generating a series of keys and a series of signatures from native data; selecting, during session connection, a first key index which is predetermined and a first signature index which is random; locating a first key and a first signature from the series of keys and the series of signatures according to the first key index and the first signature index; signing session request data with the first signature, and encrypting the session request data with the first key and sending the encrypted session request data to a server; and receiving, from the server, session response data signed with a second signature which corresponds to a randomly selected signature index and encrypted with a second key which corresponds to a randomly selected key index, after decryption and signature verification by the server over the session request data succeed.
A method of making (1R,3R)-3-(cyanomethyl)-3-(4-(6-(1-methyl-1H-pyrazol-4-yl)pyrazolo[1,5-a]pyrazin-4-yl)-1H-pyrazol-1-yl)cyclobutane-1-carbonitrile, Form 1 anhydrous free base (Form 1 anhydrous free base), comprising: suspending (1R,3R)-3-(cyanomethyl)-3-(4-(6-(1-methyl-1H-pyrazol-4-yl)pyrazolo[1,5-a]pyrazin-4-yl)-1H-pyrazol-1-yl)cyclobutane-1-carbonitrile, Form 2 monohydrate, in a mixture comprising tetrahydrofuran, methanol, and water at 20°C to 30°C; heating the mixture under reflux; filtering the mixture into a vessel preheated to 65°C; washing the mixture with a preheated solution comprising THF, methanol, and water; cooling the mixture to 50°C; distilling the mixture at temperature between 50°C to 70°C to obtain a distilled volume of sample of approximately 15 mL/g; adding ethyl acetate to the distilled volume of sample and distilling the sample again, wherein the ethyl acetate addition and distillation is repeated until there is not more than 2 wt% THF and methanol and not more than 0.5 wt% water; cooling the sample; isolating the Form 1 anhydrous free base from the sample using filtration and optionally washing the Form 1 anhydrous free base with ethyl acetate; and drying the Form 1 anhydrous free base until it comprises an ethyl acetate residue of ≤0.02%, wherein the Form 1 anhydrous free base is characterized by a powder X-ray diffraction pattern comprising characteristic peaks, in terms of 2θ, at 20.6°, 22.8° and 27.0° 2θ ± 0.2 ° 2θ. suspending (1R,3R)-3-(cyanomethyl)-3-(4-(6-(1-methyl-1H-pyrazol-4-yl)pyrazolo[1,5-a]pyrazin-4-yl)-1H-pyrazol-1-yl)cyclobutane-1-carbonitrile, Form 2 monohydrate, in a mixture comprising tetrahydrofuran, methanol, and water at 20°C to 30°C; heating the mixture under reflux; filtering the mixture into a vessel preheated to 65°C; washing the mixture with a preheated solution comprising THF, methanol, and water; cooling the mixture to 50°C; distilling the mixture at temperature between 50°C to 70°C to obtain a distilled volume of sample of approximately 15 mL/g; adding ethyl acetate to the distilled volume of sample and distilling the sample again, wherein the ethyl acetate addition and distillation is repeated until there is not more than 2 wt% THF and methanol and not more than 0.5 wt% water; cooling the sample; isolating the Form 1 anhydrous free base from the sample using filtration and optionally washing the Form 1 anhydrous free base with ethyl acetate; and drying the Form 1 anhydrous free base until it comprises an ethyl acetate residue of ≤0.02%, wherein the Form 1 anhydrous free base is characterized by a powder X-ray diffraction pattern comprising characteristic peaks, in terms of 2θ, at 20.6°, 22.8° and 27.0° 2θ ± 0.2 ° 2θ.
Inflatable ball, in particular soccer ball, having an outer shell, comprising a plurality of panels (30, 40), wherein a. the panels (30, 40) are interconnected by seams; b. each panel (30, 40) comprises at least one pseudo-seam extending at least over a part of an outer surface of the panel (30, 40); c. wherein each panel (30, 40) comprises at least one backing material and at least one surface material and wherein the at least one pseudo-seam is provided in the backing material and the surface material; and d. wherein the pseudo-seams have a cross-sectional shape corresponding essentially to a cross-sectional shape of the seam between two panels (30, 40). a. the panels (30, 40) are interconnected by seams; b. each panel (30, 40) comprises at least one pseudo-seam extending at least over a part of an outer surface of the panel (30, 40); c. wherein each panel (30, 40) comprises at least one backing material and at least one surface material and wherein the at least one pseudo-seam is provided in the backing material and the surface material; and d. wherein the pseudo-seams have a cross-sectional shape corresponding essentially to a cross-sectional shape of the seam between two panels (30, 40).