mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a security element , characterised in that the method comprises the following steps: a) recording a three-dimensional object ; b) determining a surface profile of the three-dimensional object, which surface profile is described by a function F(x,y), which function F(x,y) describes the distance between the surface profile and a two-dimensional reference plane spanned by coordinate axes x and y at the coordinate points x and y; c) determining a first microstructure in such a way that the structure height of the first microstructure is limited to a predetermined value smaller than the maximum distance between the surface profile and the two-dimensional reference plane , and in such a way that the first microstructure provides an observer with a first optical perception corresponding to the surface profile of the three-dimensional object described by the function F(x,y); d) introducing the first microstructure into a layer of the security element , in particular by means of lithographic methods, in such a way that the observer is provided with the first optical perception by the first microstructure of the layer of the security element . a) recording a three-dimensional object ; b) determining a surface profile of the three-dimensional object, which surface profile is described by a function F(x,y), which function F(x,y) describes the distance between the surface profile and a two-dimensional reference plane spanned by coordinate axes x and y at the coordinate points x and y; c) determining a first microstructure in such a way that the structure height of the first microstructure is limited to a predetermined value smaller than the maximum distance between the surface profile and the two-dimensional reference plane , and in such a way that the first microstructure provides an observer with a first optical perception corresponding to the surface profile of the three-dimensional object described by the function F(x,y); d) introducing the first microstructure into a layer of the security element , in particular by means of lithographic methods, in such a way that the observer is provided with the first optical perception by the first microstructure of the layer of the security element .
A method of manufacturing a fiber reinforced ceramic matrix coating, the method comprising: providing a substrate ; plasma spraying a ceramic matrix material and fibers encapsulated in a precursor material onto the substrate ; said fibers having a higher melting temperature than the precursor material and an aspect ratio of length to width of greater than 10:1; and heat treating the ceramic matrix, wherein the heat treating step comprises at least one of pyrolyzing the precursor material or calcinating the precursor material and the heat treating step reduces at least the number or size of voids in the ceramic matrix coating. providing a substrate ; plasma spraying a ceramic matrix material and fibers encapsulated in a precursor material onto the substrate ; said fibers having a higher melting temperature than the precursor material and an aspect ratio of length to width of greater than 10:1; and heat treating the ceramic matrix, wherein the heat treating step comprises at least one of pyrolyzing the precursor material or calcinating the precursor material and the heat treating step reduces at least the number or size of voids in the ceramic matrix coating.
The use of a composition for synchronizing ovulation in swine without heat detection, the composition comprising a hormone selected from the group consisting of (a) a gonadotropin releasing hormone (GnRH), (b) a luteinizing hormone (LH), and (c) a human chorionic gonadotropin (hCG), or (d) a GnRH analog, wherein the composition is used to cause ovulation at a defined time following administration to a postpartum sow after weaning of the piglets and wherein the use is administration of a single hormone selected from (a) to (d), without any other administration of a hormone, wherein the hormone is dissolved or suspended in an injectable excipient, and wherein the sow is to be bred after administration of the hormone using a single artificial insemination step. (a) a gonadotropin releasing hormone (GnRH), (b) a luteinizing hormone (LH), and (c) a human chorionic gonadotropin (hCG), or (d) a GnRH analog,
A soil activator for stimulating the growth of a plant or crop, comprising: a) 83% of ammonium lignosulfonate; b) 10% of at least one microorganism, and c) 7% of sodium bicarbonate said ammonium lignosulfonate being at least one of tetrabutyl ammonium lignosulfonate and phenyltrimethylammonium lignosulfonate. a) 83% of ammonium lignosulfonate; b) 10% of at least one microorganism, and c) 7% of sodium bicarbonate
Vented liner for milking plants, comprising: - a head comprising an orifice forming the mouthpiece for the teat of the animal to be milked; - a body consisting of the central portion of the vented liner in which the teat is received during milking; - a milk tube consisting of the portion of the vented liner that is located opposite to the head ; - an insert insertable into the head of the vented liner , said insert comprising a shaft , an insert head connected to the shaft , and a through-hole formed longitudinally inside the shaft and passing through the insert head and the shaft for allowing controlled, constant entry of air into the head of the vented liner ; characterized in that on the shaft there is provided a thread adapted to be screwed into the head of the vented liner and penetrate into the rubber of which the liner is made. - a head comprising an orifice forming the mouthpiece for the teat of the animal to be milked; - a body consisting of the central portion of the vented liner in which the teat is received during milking; - a milk tube consisting of the portion of the vented liner that is located opposite to the head ; - an insert insertable into the head of the vented liner , said insert comprising a shaft , an insert head connected to the shaft , and a through-hole formed longitudinally inside the shaft and passing through the insert head and the shaft for allowing controlled, constant entry of air into the head of the vented liner ;
Radome casing comprising walls of composite material which includes reinforcement fibers and matrix resin binding the fibers together, the walls including a radiation transmission window through which the radiation of a radome antenna passes when the radome antenna is mounted inside the radome casing , wherein the walls are composed of a straight tubular or C-formed profile and the amount of fibers in the radiation transmission window is less than 40% of the amount of reinforcement fibers elsewhere in the casing walls , and that the radiation transmission window has a sandwich structure having surface layers and a middle layer between the surface layers, the reinforcement fibers being concentrated in the surface layers and the middle layer being made of a filling material .
A method for manufacturing veneers , the method comprising - receiving a wood block , - producing veneer by peeling the wood block with a veneer lathe comprising • a rotor for rotating the wood block , • a knife for peeling veneer from the wood block , and • a roller nose bar configured to press the wood block and rotate in a manner independent of the knife , wherein • a knife gap is left in between the roller nose bar and the knife and • the veneer is configured to exit through the knife gap , characterized in that the method is further comprising - cutting the veneer to form veneer sheets including heart wood veneer sheets and other veneer sheets, - arranging at least one of the veneer sheets into a stack of veneer sheets, and - pressing the stack of veneer sheets with a pressure (P) to dry the veneer sheets of the stack to obtain pre-dried veneer sheets , wherein - the wood block is a block of softwood, - the pressure (P) is at least 13 bar, and - the pressure (P) does not exceed 40 bar, the method comprising - further drying the heart wood veneer sheets, which are not pre-dried, and the pre-dried veneer sheets in a drier using heat and gas circulation to obtain dry veneers . - receiving a wood block , - producing veneer by peeling the wood block with a veneer lathe comprising • a rotor for rotating the wood block , • a knife for peeling veneer from the wood block , and • a roller nose bar configured to press the wood block and rotate in a manner independent of the knife , wherein • a knife gap is left in between the roller nose bar and the knife and • the veneer is configured to exit through the knife gap , characterized in that the method is further comprising • a rotor for rotating the wood block , • a knife for peeling veneer from the wood block , and • a roller nose bar configured to press the wood block and rotate in a manner independent of the knife , wherein • a knife gap is left in between the roller nose bar and the knife and • the veneer is configured to exit through the knife gap , - cutting the veneer to form veneer sheets including heart wood veneer sheets and other veneer sheets, - arranging at least one of the veneer sheets into a stack of veneer sheets, and - pressing the stack of veneer sheets with a pressure (P) to dry the veneer sheets of the stack to obtain pre-dried veneer sheets , wherein - the wood block is a block of softwood, - the pressure (P) is at least 13 bar, and - the pressure (P) does not exceed 40 bar, the method comprising - further drying the heart wood veneer sheets, which are not pre-dried, and the pre-dried veneer sheets in a drier using heat and gas circulation to obtain dry veneers .
Filter element adapted to separate a dispersed fluid phase from a continuous phase of a gas mixture, the filter element comprising - a horizontal axis (X), a vertical axis (Y) and a depth axis (Z) perpendicularly to the each other, - a coalescing filter medium being folded in a sinusoidal or zigzagged manner forming at least one fold having a length and a depth , and - at least one corrugated separator comprising sinusoidal or zigzag-shaped corrugations located in between adjacent longitudinal surfaces of the fold, wherein the heights of the corrugations extend perpendicularly to the length of the fold and wherein each corrugation comprises a corrugation depth axis (L) extending across the depth of the fold, characterized in, that - the corrugation depth axis (L) is disposed at an angle offset to the horizontal axis (X) as well as offset to the vertical axis (Y) as well as offset to the depth axis (Z) and - the longitudinal surfaces of the fold extend along the horizontal axis (X) of the filter element from an inflow side of the filter element to an outflow side of the filter element . - a horizontal axis (X), a vertical axis (Y) and a depth axis (Z) perpendicularly to the each other, - a coalescing filter medium being folded in a sinusoidal or zigzagged manner forming at least one fold having a length and a depth , and - at least one corrugated separator comprising sinusoidal or zigzag-shaped corrugations located in between adjacent longitudinal surfaces of the fold, wherein the heights of the corrugations extend perpendicularly to the length of the fold and wherein each corrugation comprises a corrugation depth axis (L) extending across the depth of the fold, characterized in, that - the corrugation depth axis (L) is disposed at an angle offset to the horizontal axis (X) as well as offset to the vertical axis (Y) as well as offset to the depth axis (Z) and - the longitudinal surfaces of the fold extend along the horizontal axis (X) of the filter element from an inflow side of the filter element to an outflow side of the filter element .
A battery sensor device , which is arranged on a rechargeable battery block or on a rechargeable battery cell and is connected to respective battery electrode terminals via first and second cell connector lines , wherein at least a battery voltage of the battery block or the battery cell can be measured by the battery sensor device and wherein via only one of the cell connector lines to the battery electrode terminal the temperature thereof can be measured by a temperature sensor of the battery sensor device , characterised in that the one cell connector line is the first cell connector line, which is shorter than the second cell connector line , and the first cell connector line has a larger cross-section than the second cell connector line , so that a pole temperature can be transmitted with few losses and with little delay.
A subsea enclosure for installing subsea equipment or a subsea component therein, the enclosure comprising walls of a fluid tight material, each wall terminating in a flange ; a cover for closing the enclosure; an elastomeric seal between the flange and the cover; and compressive members to apply a compressive force to the elastomeric seal, via the cover and the flange; a bracket connecting the flange to the cover; a weld seal between the bracket and the flange; and a weld seal between the bracket and the cover; characterised by the bracket being fitted over the compressive members .
A bone connection system, comprising: a switchable bone connection unit attachable between a bone of a subject and a support element , said switchable bone connection unit having (a) a locked state in which said bone is attached to said support element , and (b) a released state in which said bone can move relative to said support element, said switchable bone connection unit being adapted to switch from said locked state to said released state when force exerted between said bone and said support element exceeds a predetermined level, said switchable bone connection unit comprising; a force sensor for determining the force exerted between said bone and said support element; and a position sensor (25,29; 64,66) for determining the position of said bone relative to said support element; said bone connection system being characterized in that it further comprises a controller configured to utilize said determined position of said bone relative to said support element in order to instruct an activated arm attached to said support element and configured to guide a surgical tool to a known position relative to said bone connection unit , such that the position of said surgical tool relative to said bone is maintained during said released state of said switchable bone connection unit. a switchable bone connection unit attachable between a bone of a subject and a support element , said switchable bone connection unit having (a) a locked state in which said bone is attached to said support element , and (b) a released state in which said bone can move relative to said support element, said switchable bone connection unit being adapted to switch from said locked state to said released state when force exerted between said bone and said support element exceeds a predetermined level, said switchable bone connection unit comprising; a force sensor for determining the force exerted between said bone and said support element; and a position sensor (25,29; 64,66) for determining the position of said bone relative to said support element;
A method for configuring a secondary cell in a dual connectivity, DC, mode by a user equipment, UE , the method comprising: connecting to a primary cell and the secondary cell based on configurations received from a network; characterised by : identifying at least one of a reference signal received power, RSRP, of the UE for the secondary cell, or a block error ratio, BLER, for the secondary cell; performing at least one of a first comparison of the RSRP and a first threshold for a first duration, or a second comparison of the BLER and a second threshold for the first duration; releasing connection with the secondary cell based on at least one of a first result of the first comparison or a second result of the second comparison; and blocking transmission of a measurement report for the secondary cell for a second duration in response to releasing of the connection with the secondary cell. identifying at least one of a reference signal received power, RSRP, of the UE for the secondary cell, or a block error ratio, BLER, for the secondary cell; performing at least one of a first comparison of the RSRP and a first threshold for a first duration, or a second comparison of the BLER and a second threshold for the first duration; releasing connection with the secondary cell based on at least one of a first result of the first comparison or a second result of the second comparison; and blocking transmission of a measurement report for the secondary cell for a second duration in response to releasing of the connection with the secondary cell.
A process for the manufacturing of a catalyst composition of the present invention prepared by: a. Adding, clay, boehmite, a first silica to form a slurry; b. Digesting the slurry with a monoprotic acid to a pH of less than 4; c. Adding one or more zeolites from the group of ultra stabilized high SiO 2 /Al 2 O 3 Y zeolite, wherein the framework SiO 2 /Al 2 O 3 ratio is above 6.5, rare earth exchanged USY, rare earth exchanged Y zeolites, zeolites with pentasil and beta structures to the slurry and mixtutres thereof; d. Adding a rare earth component in form of a salt or solution to the slurry either after step (a) or after step (c) and mixing; e. Adjust the slurry pH to below 4 with monoprotic acid; f. Adding a second silica anywhere in the above steps a - e; g. Destabilizing the slurry by raising the pH to above 4.0; h. Shaping and collecting the resulting catalyst; i. Optionally followed by a calcination and post washing step to remove excess sodium as necessary. a. Adding, clay, boehmite, a first silica to form a slurry; b. Digesting the slurry with a monoprotic acid to a pH of less than 4; c. Adding one or more zeolites from the group of ultra stabilized high SiO 2 /Al 2 O 3 Y zeolite, wherein the framework SiO 2 /Al 2 O 3 ratio is above 6.5, rare earth exchanged USY, rare earth exchanged Y zeolites, zeolites with pentasil and beta structures to the slurry and mixtutres thereof; d. Adding a rare earth component in form of a salt or solution to the slurry either after step (a) or after step (c) and mixing; e. Adjust the slurry pH to below 4 with monoprotic acid; f. Adding a second silica anywhere in the above steps a - e; g. Destabilizing the slurry by raising the pH to above 4.0; h. Shaping and collecting the resulting catalyst; i. Optionally followed by a calcination and post washing step to remove excess sodium as necessary.
A coating system for coating a workpiece (W1-W5, W5') with a liquid coating product, the coating system including a grounded ultrasonic head for generating droplets of coating product, wherein the coating system further includes: - an electrode (32A-32C) for generating an electrostatic field (E) between the electrode and the ultrasonic spray head, and - a high-voltage generator connected to the electrode for supplying the electrode with high voltage, characterized in that - the high voltage generator is integrated in a sub-module which includes also a discharge resistor and connection means , said sub-module defining two housings , where the high voltage generator and the discharge resistor are respectively received, and a connection housing where a connector is received to connect the high voltage generator and the discharge resistor and - the electrode (32A-32C) is shaped according to the workpiece geometry and supported by a base part which includes the high-voltage generator . - an electrode (32A-32C) for generating an electrostatic field (E) between the electrode and the ultrasonic spray head, and - a high-voltage generator connected to the electrode for supplying the electrode with high voltage, - the high voltage generator is integrated in a sub-module which includes also a discharge resistor and connection means , said sub-module defining two housings , where the high voltage generator and the discharge resistor are respectively received, and a connection housing where a connector is received to connect the high voltage generator and the discharge resistor and - the electrode (32A-32C) is shaped according to the workpiece geometry and supported by a base part which includes the high-voltage generator .
Authorisation system for access authorisation for logins or billing for the use of systems, consisting of a system architecture with a server , a regional control module , at least one local authorisation module and, connected with the same, at least one reading unit and at least one actuator , in particular a closing mechanism, characterised in that the reading unit is equipped with at least two aerial types , wherein at least one aerial type has a amplifying adaptive circuit , and wherein the amplifying adaptive circuit effects amplification of the signal by at least 30% and displaces the peak of the signal by 500 kHz below the working frequency of 13.56 MHz, and widens it by 500 kHz at 50 Ohm.
Electrofused alumina grains comprising titanium and magnesium, wherein: the titanium content in terms of TiO 2 in the electrofused alumina grains is from 0.7 to 1.2 % by mass, and the magnesium content in terms of MgO in the electrofused alumina grains is from 3.0 to 20 mol relative to 100 mol of the titanium content in terms of TiO 2 in the electrofused alumina grains. the titanium content in terms of TiO 2 in the electrofused alumina grains is from 0.7 to 1.2 % by mass, and the magnesium content in terms of MgO in the electrofused alumina grains is from 3.0 to 20 mol relative to 100 mol of the titanium content in terms of TiO 2 in the electrofused alumina grains.
A computer implemented method for generating a representation of an environment (U) of a vehicle including the steps of: - capturing a first image by means of a first camera , - capturing a second image by means of a second camera , - generating and displaying to a driver of the vehicle a virtual image of a virtual camera from the first image and the second image, wherein - at least a first perspective for a first virtual camera position of the virtual camera and a second perspective for a second virtual camera position of the virtual camera are selectable for the virtual image, wherein the environment (U) of the vehicle is represented from a bird's eye perspective in the first perspective and exclusively an area of the environment (U) of the vehicle rearwards related to the vehicle is represented in the second perspective, characterized in that - upon switching from the first perspective to the second perspective of the virtual image , the representation of the environment (U) is continuously transferred from the first perspective to the second perspective such that the representation of the environment (U) by the virtual image is adapted to a shift of the virtual camera towards an interior mirror of the vehicle upon switching and to a rotation of the virtual camera upon reaching a mirror plane of the interior mirror . - capturing a first image by means of a first camera , - capturing a second image by means of a second camera , - generating and displaying to a driver of the vehicle a virtual image of a virtual camera from the first image and the second image, wherein - at least a first perspective for a first virtual camera position of the virtual camera and a second perspective for a second virtual camera position of the virtual camera are selectable for the virtual image, wherein the environment (U) of the vehicle is represented from a bird's eye perspective in the first perspective and exclusively an area of the environment (U) of the vehicle rearwards related to the vehicle is represented in the second perspective, characterized in that - upon switching from the first perspective to the second perspective of the virtual image , the representation of the environment (U) is continuously transferred from the first perspective to the second perspective such that the representation of the environment (U) by the virtual image is adapted to a shift of the virtual camera towards an interior mirror of the vehicle upon switching and to a rotation of the virtual camera upon reaching a mirror plane of the interior mirror .