mhurhangee/ep-ind-claims huggingface dataset:
A metal-air battery comprising: first and second battery stack structures each comprising an anode, an anode electrolyte layer, a cathode, and a gas diffusion layer (14,140); and at least one cathode current collector disposed between the first and second battery stack structures and having a non-flat shape, wherein the cathodes of the first and second battery stack structures face each other. first and second battery stack structures each comprising an anode, an anode electrolyte layer, a cathode, and a gas diffusion layer (14,140); and at least one cathode current collector disposed between the first and second battery stack structures and having a non-flat shape, wherein the cathodes of the first and second battery stack structures face each other.
Use of a composition for scavenging hydrogen sulphide and/or mercaptans, the composition comprising I. at least one reaction product between a nitrogen-free monohydric alcohol and an aldehyde or ketone, and II. at least one reaction product between a nitrogen-free polyhydric alcohol and an aldehyde or ketone, wherein the reaction products I. and II. are selected from hemiacetals and acetals, and the aldehyde or ketone contains 1 to 10 carbon atoms, and the monohydric alcohol comprises 1 to 15 carbon atoms, and the polyhydric alcohol contains 2 to 20 carbon atoms and 2 to 6 hydroxy groups. I. at least one reaction product between a nitrogen-free monohydric alcohol and an aldehyde or ketone, and II. at least one reaction product between a nitrogen-free polyhydric alcohol and an aldehyde or ketone, wherein
A method (1, 10) for the functionalizing treatment of hides of the type comprising a dermis of animal origin comprising fibers and/or fibrils of collagen and an aqueous component, in order to improve the elastic properties of said hides, characterized in that it comprises the steps of: a1) removing selectively the aqueous component of the dermis of said hides, by using one or more organic solvents; a2) performing a dehydrothermal treatment for the activation of reactive groups present in the collagen, provided by arranging the hides in an environment in which the pressure is equal to or lower than 0.133 mbar (100 mTorr) and the temperature is equal to or higher than 90°C. a1) removing selectively the aqueous component of the dermis of said hides, by using one or more organic solvents; a2) performing a dehydrothermal treatment for the activation of reactive groups present in the collagen, provided by arranging the hides in an environment in which the pressure is equal to or lower than 0.133 mbar (100 mTorr) and the temperature is equal to or higher than 90°C.
An endoluminal stent comprising: a. a plurality of circumferential expansion elements co-axially spaced to form a tubular configuration and each having an undulating pattern of peaks and valleys interconnected by struts, wherein the struts form linear sections and are interconnected at the peaks and valleys by hinge elements that are U-shaped; and b. a plurality of interconnecting elements interconnecting adjacent pairs of circumferential expansion elements and joined at the approximate mid-points of adjacent struts along a longitudinal axis of the endoluminal stent, and characterised in that the interconnecting elements are generally linear and have curvilinear first and second terminal sections (18, 20) at opposing ends of each interconnecting element that join with the struts, each section of the first and second terminal section having a narrower width than a width of the interconnecting elements. a. a plurality of circumferential expansion elements co-axially spaced to form a tubular configuration and each having an undulating pattern of peaks and valleys interconnected by struts, wherein the struts form linear sections and are interconnected at the peaks and valleys by hinge elements that are U-shaped; and b. a plurality of interconnecting elements interconnecting adjacent pairs of circumferential expansion elements and joined at the approximate mid-points of adjacent struts along a longitudinal axis of the endoluminal stent, and characterised in that the interconnecting elements are generally linear and have curvilinear first and second terminal sections (18, 20) at opposing ends of each interconnecting element that join with the struts, each section of the first and second terminal section having a narrower width than a width of the interconnecting elements.
A two-door electric traction car comprising a single front door on one side of the car, a single rear door on the opposite side of the car and a main frame including: - a front axle unit and a rear axle unit each comprising an auxiliary supporting frame; - a front frame sub-unit, a floor frame sub-unit, a rear frame sub-unit and a roof frame sub-unit, said car being characterized in that it comprises two lateral intermediate uprights arranged on the two sides of the car which are longitudinally offset relative to each other, with the intermediate upright on the side of the front door which intermediate upright is rearwardly displaced in the longitudinal direction with respect to the intermediate upright on the side of the rear door side, said intermediate uprights being parts of the roof frame sub-unit of the main frame of the car, wherein the auxiliary supporting frames of said front and rear axle units (6, 7) are bolted to said main frame, wherein each one of said frame sub-units comprises a lattice structure including hollow elements formed by steel sheets, preferably sheets of high-tensile steel, said frame sub-units being arranged to be pre-assembled separately and then assembled together to form said main frame, and wherein said rear frame sub-unit includes a plurality of cross-members defining a supporting planar surface for the outer rear seats (P1, P2) of the car. - a front axle unit and a rear axle unit each comprising an auxiliary supporting frame; - a front frame sub-unit, a floor frame sub-unit, a rear frame sub-unit and a roof frame sub-unit, said car being characterized in that it comprises two lateral intermediate uprights arranged on the two sides of the car which are longitudinally offset relative to each other, with the intermediate upright on the side of the front door which intermediate upright is rearwardly displaced in the longitudinal direction with respect to the intermediate upright on the side of the rear door side, said intermediate uprights being parts of the roof frame sub-unit of the main frame of the car, wherein the auxiliary supporting frames of said front and rear axle units (6, 7) are bolted to said main frame, wherein each one of said frame sub-units comprises a lattice structure including hollow elements formed by steel sheets, preferably sheets of high-tensile steel, said frame sub-units being arranged to be pre-assembled separately and then assembled together to form said main frame, and wherein said rear frame sub-unit includes a plurality of cross-members defining a supporting planar surface for the outer rear seats (P1, P2) of the car.
A sensor for measuring physical parameters such as acceleration, rotation, magnetic field, comprising a) a substrate defining a substrate plane, b) at least one sensing plate (11, 12) suspended above the substrate for performing a movement having at least a first component in a sensing direction, wherein the sensing direction is orthogonal to the substrate plane, c) at least one detection arm (14.1, 14.2) that is suspended above the substrate for performing a rotational movement about a rotation axis parallel to the substrate plane, d) an out-of-plane coupling structure (17.1, 17.4) for coupling the first component of the movement of said sensing plate (11, 12) to said detection arm (14.1, 14.2) for generating the rotational movement of the detection arm (14.1, 14.2), e) a rotation detection structure cooperating with the detection arm (14.1, 14.2) for detecting the rotational movement of the detection arm (14.1, 14.2) with respect to the substrate plane, f) characterized by a pivot element (17.2, 17.3) arranged at a distance from the out-of-plane coupling structure (17.1, 17.4), said pivot element (17.2, 17.3) coupling the sensing plate to a geometric reference plane, which is at a fixed distance above the substrate, so that the sensing plate (11, 12) performs a tilting out-of-plane movement. a) a substrate defining a substrate plane, b) at least one sensing plate (11, 12) suspended above the substrate for performing a movement having at least a first component in a sensing direction, wherein the sensing direction is orthogonal to the substrate plane, c) at least one detection arm (14.1, 14.2) that is suspended above the substrate for performing a rotational movement about a rotation axis parallel to the substrate plane, d) an out-of-plane coupling structure (17.1, 17.4) for coupling the first component of the movement of said sensing plate (11, 12) to said detection arm (14.1, 14.2) for generating the rotational movement of the detection arm (14.1, 14.2), e) a rotation detection structure cooperating with the detection arm (14.1, 14.2) for detecting the rotational movement of the detection arm (14.1, 14.2) with respect to the substrate plane, f) characterized by a pivot element (17.2, 17.3) arranged at a distance from the out-of-plane coupling structure (17.1, 17.4), said pivot element (17.2, 17.3) coupling the sensing plate to a geometric reference plane, which is at a fixed distance above the substrate, so that the sensing plate (11, 12) performs a tilting out-of-plane movement.
An engine control system for controlling user access to one or more engine control functions, the engine control system communicatively coupled to an engine via an engine control interface and the engine control system comprising two or more human-machine interface, HMI, units, each HMI unit comprising a respective user interface, UI, for providing user access to respective one or more engine control functions, wherein at least two HMI units comprise a respective lock means for receiving a safety key that represents a key identification, ID, of a plurality of key IDs, wherein each key ID has respective at least one engine control function associated therewith, wherein the engine control system is arranged to, when the lock means in a first HMI unit is in receipt of the safety key that represents a first key ID of said plurality of key IDs, selectively enable via the UI of said first HMI unit one of the following: a user-operable locking function for locking, by the first key ID, said respective at least one engine control function associated with the first key ID to disable user access, via said Uls, to said respective at least one engine control function, or a user-operable unlocking function for releasing said respective at least one engine control function from locking by the first key ID to re-enable user access, via said Uls, to those ones of said respective at least one engine control function that are currently not locked by one or more other key IDs of said plurality of key IDs. a user-operable locking function for locking, by the first key ID, said respective at least one engine control function associated with the first key ID to disable user access, via said Uls, to said respective at least one engine control function, or a user-operable unlocking function for releasing said respective at least one engine control function from locking by the first key ID to re-enable user access, via said Uls, to those ones of said respective at least one engine control function that are currently not locked by one or more other key IDs of said plurality of key IDs.
A pump for pumping slurry, such as manure, said pump in the orientation intended for use, comprising: - an outer housing comprising an upper end and a lower end and one or more side walls (8,8',8", 8"') extending between the upper end and said lower end of said outer housing, wherein said lower end of said outer housing comprises a bottom part, wherein said bottom part comprises an inlet opening for slurry; wherein said upper end of said outer housing comprises an outlet opening for slurry; wherein said pump comprises: - an inner housing comprising an upper end and a lower end; said inner housing being contained within the outer housing and said inner housing extending from an opening in the side wall of the outer housing to a position below said opening in the side wall; said inner housing and outer housing thereby defining a flow space for slurry; - and a motor being confined within the inner housing; said motor comprising a driveshaft arranged at a lower end of said inner housing; - and an impeller being connected to and being configured to be driven by said driveshaft of said motor; wherein the lower end of the inner housing is positioned above said bottom part of the outer housing; thereby defining an impeller space between the lower end of said inner housing and said bottom part of said outer housing; wherein said impeller is arranged in said impeller space; wherein said bottom part, at an inner perimeter thereof, defines a smoothly curved transition wall, connecting the bottom of the bottom part to the side wall(s) (8,8',8", 8'") of the outer housing; characterized in that said inner housing is being tapered in an upward direction. - an outer housing comprising an upper end and a lower end and one or more side walls (8,8',8", 8"') extending between the upper end and said lower end of said outer housing, wherein said lower end of said outer housing comprises a bottom part, - an inner housing comprising an upper end and a lower end; said inner housing being contained within the outer housing and said inner housing extending from an opening in the side wall of the outer housing to a position below said opening in the side wall; said inner housing and outer housing thereby defining a flow space for slurry; - and a motor being confined within the inner housing; said motor comprising a driveshaft arranged at a lower end of said inner housing; - and an impeller being connected to and being configured to be driven by said driveshaft of said motor;
Suction device for eliminating particles from a suction flow, with a suction motor for generating the suction flow, wherein the suction motor is a part of a motor module and located in a motor location chamber of a vacuum cleaner housing of the suction device, wherein the vacuum cleaner housing has an air ducting assembly communicating with the motor location chamber, wherein the motor location chamber has, at a vacuum cleaner housing wall of the vacuum cleaner housing, an installation opening, through which the motor module can be removed from the motor location chamber or installed into the motor location chamber, and wherein the vacuum cleaner housing has a cover for closing the motor location chamber, wherein the vacuum cleaner housing comprises a motor housing part having the motor location chamber and a filter housing part releasably connectable to the motor housing part, characterised in that the vacuum cleaner housing wall with the installation opening is a side wall facing the filter housing part, in particular a base wall of the motor housing part.
Process for the manufacture of a compound of formula comprising the step of reacting a compound of formula with a compound of formula in protic or aromatic solvents or in mixtures of these solvents with highly polar solvents at a temperature of not less than 50°C under refluxing conditions, characterized in that the compound of formula is obtained by base catalyzed dechloroacetylation of a compound of formula in protic solvents at temperatures of about 70°C to ambient temperature using inorganic or organic bases as catalysator.
A process to produce a mono vinyl ether of formula I R-O-CH=CH 2 wherein R represents an organic group with at least three carbon atoms comprising a) reacting a mono hydroxy compound of formula II R-OH wherein R has the above meaning with acetylene in presence of a catalyst to get a product mixture comprising the mono vinyl ether, unconverted mono hydroxy compound and the catalyst b) adding an ester comprising at least one ester group of formula III X-O 2 C- wherein X is a hydrocarbon group comprising less carbon atoms than R to the product mixture obtained in process step a) and reacting the remaining mono hydroxy compound R-OH with the ester in the presence of the catalyst to get a transesterification product comprising at least one ester group of formula IV R-O 2 C- and an alcohol of formula V X-OH wherein R and X have the above meaning and c) isolating the mono vinyl ether from the product mixture obtained after process step b), optionally followed by purification of the mono vinyl ether by distillation. a) reacting a mono hydroxy compound of formula II R-OH wherein R has the above meaning with acetylene in presence of a catalyst to get a product mixture comprising the mono vinyl ether, unconverted mono hydroxy compound and the catalyst wherein R has the above meaning with acetylene in presence of a catalyst to get a product mixture comprising the mono vinyl ether, unconverted mono hydroxy compound and the catalyst b) adding an ester comprising at least one ester group of formula III X-O 2 C- wherein X is a hydrocarbon group comprising less carbon atoms than R to the product mixture obtained in process step a) and reacting the remaining mono hydroxy compound R-OH with the ester in the presence of the catalyst to get a transesterification product comprising at least one ester group of formula IV R-O 2 C- and an alcohol of formula V X-OH wherein R and X have the above meaning and wherein X is a hydrocarbon group comprising less carbon atoms than R to the product mixture obtained in process step a) and reacting the remaining mono hydroxy compound R-OH with the ester in the presence of the catalyst to get a transesterification product comprising at least one ester group of formula IV R-O 2 C- and an alcohol of formula V X-OH wherein R and X have the above meaning and c) isolating the mono vinyl ether from the product mixture obtained after process step b), optionally followed by purification of the mono vinyl ether by distillation.
An antifouling structure, comprising a porous structural layer; and a non-volatile liquid selected from fluorine oils and silicone oils in pores and/or on a surface of the porous structural layer, wherein the porous structural layer comprises a modified portion at least at a surface part of the porous structural layer, the elemental ratio of fluorine to silicon (F/Si) in the surface part is within the range of 3.3 to 7.1, wherein the elemental ratio of fluorine to silicon (F/Si) in the surface part of the porous structural layer is measured by an elemental analysis using an XPS analyzer, in which the porous structural layer with the modified portion is elementally analyzed from the outermost surface to a depth of approximately 5 nm, wherein in the XPS analysis of the surface part of the porous structural layer, a sample is immersed in a fluorine solvent and washed by ultrasonic wave to remove the non-volatile liquid retained in the porous structural layer, wherein the porous structural layer is made of an inorganic material mainly composed of silicon oxide, and wherein a modifier that forms the modified portion contains a compound having a fluoride functional group that can bind to a material of the porous structural layer. a porous structural layer; and a non-volatile liquid selected from fluorine oils and silicone oils in pores and/or on a surface of the porous structural layer, wherein the porous structural layer comprises a modified portion at least at a surface part of the porous structural layer, the elemental ratio of fluorine to silicon (F/Si) in the surface part is within the range of 3.3 to 7.1, wherein the elemental ratio of fluorine to silicon (F/Si) in the surface part of the porous structural layer is measured by an elemental analysis using an XPS analyzer, in which the porous structural layer with the modified portion is elementally analyzed from the outermost surface to a depth of approximately 5 nm, wherein in the XPS analysis of the surface part of the porous structural layer, a sample is immersed in a fluorine solvent and washed by ultrasonic wave to remove the non-volatile liquid retained in the porous structural layer, wherein the porous structural layer is made of an inorganic material mainly composed of silicon oxide, and wherein a modifier that forms the modified portion contains a compound having a fluoride functional group that can bind to a material of the porous structural layer. wherein the porous structural layer is made of an inorganic material mainly composed of silicon oxide, and wherein a modifier that forms the modified portion contains a compound having a fluoride functional group that can bind to a material of the porous structural layer.
A user equipment, UE (102, 2702), comprising: a processor; and a memory in electronic communication with the processor, wherein instructions stored in the memory are executable to: receive an RRCConnectionReconfiguration message using LTE-Signaling Radio Bearer, SRB, from an eNB (160 encapsulating 5G NR RRM control signaling messages intended to a 5G NR portion of the UE; determine if the RRCConnectionReconfiguration contains a specific command for an LTE portion of the UE, if so execute the command accordingly; extract the 5G NR RRM control signaling messages and forward them to the 5G NR portion; compile an LTE RRC response message; send the response back to the eNB; and send any 5G NR signaling message to the eNB via new radio, NR,-SRB. a processor; and a memory in electronic communication with the processor, wherein instructions stored in the memory are executable to: receive an RRCConnectionReconfiguration message using LTE-Signaling Radio Bearer, SRB, from an eNB (160 encapsulating 5G NR RRM control signaling messages intended to a 5G NR portion of the UE; determine if the RRCConnectionReconfiguration contains a specific command for an LTE portion of the UE, if so execute the command accordingly; extract the 5G NR RRM control signaling messages and forward them to the 5G NR portion; compile an LTE RRC response message; send the response back to the eNB; and send any 5G NR signaling message to the eNB via new radio, NR,-SRB. receive an RRCConnectionReconfiguration message using LTE-Signaling Radio Bearer, SRB, from an eNB (160 encapsulating 5G NR RRM control signaling messages intended to a 5G NR portion of the UE; determine if the RRCConnectionReconfiguration contains a specific command for an LTE portion of the UE, if so execute the command accordingly; extract the 5G NR RRM control signaling messages and forward them to the 5G NR portion; compile an LTE RRC response message; send the response back to the eNB; and send any 5G NR signaling message to the eNB via new radio, NR,-SRB.