mhurhangee/ep-ind-claims huggingface dataset:
A sheet-like composite, comprising a layer sequence which comprises the following layers, superimposed to one another, in the following order from an outer surface of the sheet-like composite to an inner surface of the sheet-like composite: a. a carrier layer, b. a barrier layer, and c. an inner polymer layer H; wherein the carrier layer has a through-hole which is covered by the barrier layer as a first hole-covering layer; wherein the barrier layer comprises a sublayer sequence which comprises - a barrier material layer, and - a barrier substrate layer as sublayers which are superimposed to one another; wherein a partial sheet-like composite consists of only the layers of the sheet-like composite from the barrier layer to the inner surface; characterised in that a modulus of elasticity of the partial sheet-like composite is at least in one direction in a composite plane of the partial sheet-like composite less than 1500 MPa; wherein the modulus of elasticity of the partial sheet-like composite is determined according to the standard DIN 53504:2017-03 with following test conditions: - ambient temperature: 23 °C - relative humidity: 50 % - sample width: 15 mm - clamp distance: 40 mm - test speed: 100 mm/min. a. a carrier layer, b. a barrier layer, and c. an inner polymer layer H; wherein the carrier layer has a through-hole which is covered by the barrier layer as a first hole-covering layer; wherein the barrier layer comprises a sublayer sequence which comprises - a barrier material layer, and - a barrier substrate layer - a barrier material layer, and - a barrier substrate layer as sublayers which are superimposed to one another; wherein a partial sheet-like composite consists of only the layers of the sheet-like composite from the barrier layer to the inner surface; characterised in that a modulus of elasticity of the partial sheet-like composite is at least in one direction in a composite plane of the partial sheet-like composite less than 1500 MPa; wherein the modulus of elasticity of the partial sheet-like composite is determined according to the standard DIN 53504:2017-03 with following test conditions: - ambient temperature: 23 °C - relative humidity: 50 % - sample width: 15 mm - clamp distance: 40 mm - test speed: 100 mm/min. - ambient temperature: 23 °C - relative humidity: 50 % - sample width: 15 mm - clamp distance: 40 mm - test speed: 100 mm/min.
A process for preparing an intermediate for avibactam, comprising the following steps: the compound of Formula III is reacted with an amine of Formula IV in solvent A and in the presence of base A via an amidation reaction to obtain a compound of Formula V; wherein in the compound of Formula III: R refers to a C 1-6 aliphatic group or alkyl-substituted phenyl; in the compound of Formula IV: R' is selected from the group consisting of hydrogen, o-methoxy, o-methyl, p-methoxy and p-methyl; R' in the compound of formula V is identical to R' in the compound of formula IV; the compound of formula V is reacted with a carbonylation reagent in solvent B and in the presence of base B via urea cyclization to obtain the compound of Formula VI; wherein R' in the compound of formula VI is identical to R' in the compound of formula IV; in solvent C and in the presence of base C, the benzyl or the substituted benzyl in the compound of Formula VI is removed by catalytic hydrogeneration, then the resulting compound is sulfatated by sulfur trioxide complex, to obtain a product; then, the product is salinized into tetrabutylammonium to obtain the compound of Formula II. the compound of Formula III is reacted with an amine of Formula IV in solvent A and in the presence of base A via an amidation reaction to obtain a compound of Formula V; wherein in the compound of Formula III: R refers to a C 1-6 aliphatic group or alkyl-substituted phenyl; in the compound of Formula IV: R' is selected from the group consisting of hydrogen, o-methoxy, o-methyl, p-methoxy and p-methyl; R' in the compound of formula V is identical to R' in the compound of formula IV; wherein in the compound of Formula III: R refers to a C 1-6 aliphatic group or alkyl-substituted phenyl; in the compound of Formula IV: R' is selected from the group consisting of hydrogen, o-methoxy, o-methyl, p-methoxy and p-methyl; R' in the compound of formula V is identical to R' in the compound of formula IV; the compound of formula V is reacted with a carbonylation reagent in solvent B and in the presence of base B via urea cyclization to obtain the compound of Formula VI; wherein R' in the compound of formula VI is identical to R' in the compound of formula IV; in solvent C and in the presence of base C, the benzyl or the substituted benzyl in the compound of Formula VI is removed by catalytic hydrogeneration, then the resulting compound is sulfatated by sulfur trioxide complex, to obtain a product; then, the product is salinized into tetrabutylammonium to obtain the compound of Formula II.
A process for preparing 6-isopropenyl-3-methyl-9-decenyl acetate of the following formula: wherein Ac represents an acetyl group, the process comprising steps of: preparing a nucleophilic reagent, 5-isopropenyl-2-methyl-8-nonenyl compound, of the following general formula: wherein M 1 represents Li, MgZ 1, ZnZ 1, Cu, CuZ 1, or CuLiZ 1, wherein Z 1 represents a halogen atom or a 5-isopropenyl-2-methyl-8-nonenyl group, from a 5-isopropenyl-2-methyl-8-nonenyl halide compound of the following general formula: wherein X 1 represents a halogen atom; subjecting the nucleophilic reagent, 5-isopropenyl-2-methyl-8-nonenyl compound, to an addition reaction with at least one electrophilic reagent selected from the group consisting of formaldehyde, paraformaldehyde, and 1,3,5-trioxane, followed by a hydrolysis reaction to form 6-isopropenyl-3-methyl-9-decenol of the following formula: and acetylating 6-isopropenyl-3-methyl-9-decenol to form 6-isopropenyl-3-methyl-9-decenyl acetate. wherein Ac represents an acetyl group, the process comprising steps of: preparing a nucleophilic reagent, 5-isopropenyl-2-methyl-8-nonenyl compound, of the following general formula: wherein M 1 represents Li, MgZ 1, ZnZ 1, Cu, CuZ 1, or CuLiZ 1, wherein Z 1 represents a halogen atom or a 5-isopropenyl-2-methyl-8-nonenyl group, from a 5-isopropenyl-2-methyl-8-nonenyl halide compound of the following general formula: wherein X 1 represents a halogen atom; subjecting the nucleophilic reagent, 5-isopropenyl-2-methyl-8-nonenyl compound, to an addition reaction with at least one electrophilic reagent selected from the group consisting of formaldehyde, paraformaldehyde, and 1,3,5-trioxane, followed by a hydrolysis reaction to form 6-isopropenyl-3-methyl-9-decenol of the following formula: and acetylating 6-isopropenyl-3-methyl-9-decenol to form 6-isopropenyl-3-methyl-9-decenyl acetate. subjecting the nucleophilic reagent, 5-isopropenyl-2-methyl-8-nonenyl compound, to an addition reaction with at least one electrophilic reagent selected from the group consisting of formaldehyde, paraformaldehyde, and 1,3,5-trioxane, followed by a hydrolysis reaction to form 6-isopropenyl-3-methyl-9-decenol of the following formula: and acetylating 6-isopropenyl-3-methyl-9-decenol to form 6-isopropenyl-3-methyl-9-decenyl acetate.
Hand rest device for a motor vehicle, with: - a resting element extending along a transverse direction from a front passenger side of the hand rest device to an opposite driver side of the hand rest device, which resting element has a resting surface, facing in a vertical direction, for a user hand, and - a shift element disposed on a driver-side end of the resting element and between the resting surface and an oppositely-situated bottom surface of the resting element, for operating a shift-by-wire gear selection control, characterised in that the shift element along the transverse direction is designed to be able to move between a stowed position, in which it is for the most part or completely recessed in the resting element, and a shift position, in which it protrudes out of the resting element further than in the stowed position, and wherein the shift element with respect to a longitudinal direction is immovably mounted in the stowed position and is unidirectionally or bidirectionally movably mounted in the shift position. - a resting element extending along a transverse direction from a front passenger side of the hand rest device to an opposite driver side of the hand rest device, which resting element has a resting surface, facing in a vertical direction, for a user hand, and - a shift element disposed on a driver-side end of the resting element and between the resting surface and an oppositely-situated bottom surface of the resting element, for operating a shift-by-wire gear selection control, characterised in that
Process for the preparation of a compound consisting of a mixture comprising p-(benzyloxy)calix arene and p-(benzyloxy)calix arene, or of a compound consisting of p-(benzyloxy)calix arene or p-(benzyloxy)calix arene comprising a step of contacting caesium hydroxide with p -(benzyloxy)phenol and paraformaldehyde, said caesium hydroxide being at a total concentration of 0.09 equivalent to 0.5 equivalent with respect to said p -(benzyloxy)phenol.
A system for controlling the operation of an agricultural utility vehicle, having a control unit (18; 19; 22) which is adapted for determining, in a first step, a working context in which the utility vehicle is to be deployed, and in a second step to collate data relevant to the operation of the utility vehicle in the determined working context, characterized in that the control unit (18; 22) is communicatively connected to a position sensor of the utility vehicle and to a tool sensor for detecting the presence of a working tool of the utility vehicle, in order to identify the working context on the basis of the position of the utility vehicle and on the basis of the presence or absence of the working tool, and in that the control unit is installed in an on board computer of the utility vehicle, and the system furthermore comprises a computer for the provision of at least a first portion of the data relevant to the operation of at least one utility vehicle, and the first portion of the data comprises intermediate data on the basis of which the control unit or the computer is in a position to request a second portion of the relevant data from a remote server.
Balcony slab, for a suspended balcony, which comprises a matrix structure comprising a filler substance and reinforcing steel, in which there is at least a flat surface, which forms the upper surface of the slab, and a lower surface on the opposite side to the upper surface, and in which there are wall brackets for attachment to a wall, and, at a distance from these, suspension points, in which there are tension-rod lugs for suspending the balcony slab, wherein the balcony slab further comprises an edge encircling the flat surface, which extends outwards from the lower surface of the slab, characterized by - at least two cross-wise webs in the lower surface of the slab, which webs extend over the area delimited inside the edge in the lower surface and are oriented outwards, - a steel C-profile frame encircling the edges of the balcony slab, in which the opening of the C of the profile is oriented towards the centre of the balcony slab, and which forms, together with the filler substance, the edge of the balcony slab, - a reinforcing profile joining the tension-rod lugs of the balcony slab, and - that the steel components of the balcony slab are of stainless steel. - at least two cross-wise webs in the lower surface of the slab, which webs extend over the area delimited inside the edge in the lower surface and are oriented outwards, - a steel C-profile frame encircling the edges of the balcony slab, in which the opening of the C of the profile is oriented towards the centre of the balcony slab, and which forms, together with the filler substance, the edge of the balcony slab, - a reinforcing profile joining the tension-rod lugs of the balcony slab, and - that the steel components of the balcony slab are of stainless steel.
An electron energy loss spectrometer comprising: a direct detection sensor configured for operating in a counting mode when directly exposed to an electron spectrum spread in two dimensions along dispersive and non-dispersive axes so that the full sensor area is used; and a sensor processor configured for receiving a sensor readout frame from said direct detection sensor representative of said electron spectrum in two dimensions, wherein said sensor processor is configured to convert said sensor readout frame into a one-dimensional spectrum, and wherein said sensor processor is configured to output said one dimensional electron spectrum to a host computer. a direct detection sensor configured for operating in a counting mode when directly exposed to an electron spectrum spread in two dimensions along dispersive and non-dispersive axes so that the full sensor area is used; and a sensor processor configured for receiving a sensor readout frame from said direct detection sensor representative of said electron spectrum in two dimensions, wherein said sensor processor is configured to convert said sensor readout frame into a one-dimensional spectrum, and wherein said sensor processor is configured to output said one dimensional electron spectrum to a host computer.
A computer-implemented method for transmitting a data message in a network, the data message having a header, the method comprising: executing at a first node a validation service that operates on the data message, wherein the validation service guarantees that software code operating at the first node successfully fulfilled a regulatory standard software code validation process; generating substantiation information comprising the results of the execution of the validation service; substantiating the data message by adding the substantiation information to the header at the first node; transmitting the substantiated data message over the network; receiving the substantiated data message at a second node; and extracting at the second node the substantiation information from the header to verify that the data message remains substantiated. executing at a first node a validation service that operates on the data message, wherein the validation service guarantees that software code operating at the first node successfully fulfilled a regulatory standard software code validation process; generating substantiation information comprising the results of the execution of the validation service; substantiating the data message by adding the substantiation information to the header at the first node; transmitting the substantiated data message over the network; receiving the substantiated data message at a second node; and extracting at the second node the substantiation information from the header to verify that the data message remains substantiated.
A gearbox system for a wind turbine, the gearbox system at least comprising - a gearbox having a gearbox volume, - lubrication locations, - a reservoir for lubricant, - a lubricant provision arrangement configured for providing a lubrication flow from the reservoir to the lubrication locations, - a lubricant return arrangement for facilitating a return flow of lubricant from the gearbox volume to the reservoir, having a pump arranged downstream of the gearbox volume, and a return duct connecting the gearbox volume, the pump and the reservoir, and - an aeration arrangement connecting an upper portion of the reservoir to the gearbox volume, the aeration arrangement having restriction means configured such that a flow rate of the lubricant through the aeration arrangement is functionally negligible in comparison to a flow rate of a gaseous fluid, - wherein the gearbox system, in particular the reservoir, the pump, the lubricant provision arrangement, the lubricant return arrangement and/or the aeration arrangement, is/are configured such that a lubricant flow having an appropriate pressure and flow rate is provided from the reservoir to each lubrication location via the lubricant provision arrangement when the pump is operative, and that the gearbox volume gets flooded with lubricant from the reservoir via the lubricant provision arrangement when the pump is inoperative, and - wherein the gearbox system does not comprise a manipulation device which is configured for enabling the flooding of the gearbox. - a gearbox having a gearbox volume, - lubrication locations, - a reservoir for lubricant, - a lubricant provision arrangement configured for providing a lubrication flow from the reservoir to the lubrication locations, - a lubricant return arrangement for facilitating a return flow of lubricant from the gearbox volume to the reservoir, having a pump arranged downstream of the gearbox volume, and a return duct connecting the gearbox volume, the pump and the reservoir, and - an aeration arrangement connecting an upper portion of the reservoir to the gearbox volume, the aeration arrangement having restriction means configured such that a flow rate of the lubricant through the aeration arrangement is functionally negligible in comparison to a flow rate of a gaseous fluid, - wherein the gearbox system, in particular the reservoir, the pump, the lubricant provision arrangement, the lubricant return arrangement and/or the aeration arrangement, is/are configured such that a lubricant flow having an appropriate pressure and flow rate is provided from the reservoir to each lubrication location via the lubricant provision arrangement when the pump is operative, and that the gearbox volume gets flooded with lubricant from the reservoir via the lubricant provision arrangement when the pump is inoperative, and - wherein the gearbox system does not comprise a manipulation device which is configured for enabling the flooding of the gearbox.
A method of controlling iron in a hydrometallurgical leach process comprising the steps of: leaching (14, 114) a feed slurry (2, 102); forming a pregnant leach solution (12a, 12b; 112a, 112b); removing a first leach residue (18, 118) from the pregnant leach solution (12a, 12b); and sending a portion (12b, 112b) of the pregnant leach solution (12a, 12b) and/or raffinate (22, 122) produced therefrom, to an iron removal process (34, 134); wherein the iron removal process (34, 134) comprises: sequentially processing the pregnant leach solution (12a, 12b) and/or raffinate (22, 122) produced therefrom in a first reactor (R 1), a second reactor (R 2), and a third reactor (R 3); maintaining a pH level of the first reactor (R 1) in the range of 4-5, by virtue of the addition of a first base; maintaining a pH level of the second (R 2) and/or third (R 3) reactors above 8.5, by virtue of a second base; and forming solids comprising magnetite; performing a solid liquid separation step after the iron removal process (34, 134); and performing a magnetic separation step to remove magnetite from said solids comprising magnetite. leaching (14, 114) a feed slurry (2, 102); forming a pregnant leach solution (12a, 12b; 112a, 112b); removing a first leach residue (18, 118) from the pregnant leach solution (12a, 12b); and sending a portion (12b, 112b) of the pregnant leach solution (12a, 12b) and/or raffinate (22, 122) produced therefrom, to an iron removal process (34, 134); wherein the iron removal process (34, 134) comprises: sequentially processing the pregnant leach solution (12a, 12b) and/or raffinate (22, 122) produced therefrom in a first reactor (R 1), a second reactor (R 2), and a third reactor (R 3); maintaining a pH level of the first reactor (R 1) in the range of 4-5, by virtue of the addition of a first base; maintaining a pH level of the second (R 2) and/or third (R 3) reactors above 8.5, by virtue of a second base; and forming solids comprising magnetite; sequentially processing the pregnant leach solution (12a, 12b) and/or raffinate (22, 122) produced therefrom in a first reactor (R 1), a second reactor (R 2), and a third reactor (R 3); maintaining a pH level of the first reactor (R 1) in the range of 4-5, by virtue of the addition of a first base; maintaining a pH level of the second (R 2) and/or third (R 3) reactors above 8.5, by virtue of a second base; and forming solids comprising magnetite; performing a solid liquid separation step after the iron removal process (34, 134); and performing a magnetic separation step to remove magnetite from said solids comprising magnetite.
An information sending method, applied to a terminal device, comprising: obtaining a physical uplink shared channel, PUSCH, transmission occasion; and determining, based on a location relationship between the PUSCH transmission occasion and a slot boundary, whether to send a PUSCH at the PUSCH transmission occasion, wherein the PUSCH corresponds to a random access message. obtaining a physical uplink shared channel, PUSCH, transmission occasion; and determining, based on a location relationship between the PUSCH transmission occasion and a slot boundary, whether to send a PUSCH at the PUSCH transmission occasion, wherein the PUSCH corresponds to a random access message.
Compressor-heat exchanger unit for a heating-cooling module for a motor vehicle, in which at least one first fluid serving as a refrigerant flows, having - a compressor device that has a housing (21, 22) for compressing the first fluid, - at least one heat exchanger device that has at least one first circuit for the first fluid to flow through and a second circuit for a second fluid to flow through, wherein this heat exchanger unit is arranged in the fluid flow after the compressor device, and the heat exchanger device is designed as a tube-in-tube heat exchanger, which has at least two flow channels (43, 45) arranged one inside the other, of which at least one flow channel (45; 43) is intended to carry coolant and at least one flow channel (43; 45) is intended to carry refrigerant, and wherein the heat exchanger device at least partially surrounds the compressor device and wherein the compressor device has a motor, which is designed as an electric motor, in particular as a brushless electric motor, preferably as a brushless external rotor electric motor, characterized in that the compressor device has a coolant jacket and in that the circuit of the second fluid is connected to a volume which is delimited by the coolant jacket and the housing. - a compressor device that has a housing (21, 22) for compressing the first fluid, - at least one heat exchanger device that has at least one first circuit for the first fluid to flow through and a second circuit for a second fluid to flow through,
Device for connection of roof penetrations, said device comprising a base element comprising a pipe having a flange at its one end, said device comprising a ring element comprising a pipe with a flange at its one end, whereby the pipe of the ring element encompasses the pipe of the base element and is slidable relative thereto, both flanges (14, 24) are oriented in the same direction, at the lateral surface of the pipe of the base element at least one first latching element is provided, at the internal side of the pipe of the ring element at least one second latching element is provided, by the cooperation of the first latching element with the second latching element a latching connection between the base element and the ring element is achieved, characterized in that the flange of the base element comprises a radially extending slot.