mhurhangee/ep-ind-claims huggingface dataset:
Hardener suitable for curing epoxy resins, comprising at least one amine of the formula, where A is an a-valent hydrocarbyl radical having a molecular weight in the range from 28 to 5000 g/mol, which optionally contains ether groups, amino groups or mercapto groups; a is an integer from 1 to 3; R is a hydrogen atom or an alkyl group having 1 to 12 carbon atoms; Y either is a hydrogen atom or is a monovalent hydrocarbyl radical having 1 to 12 carbon atoms or is an alkoxy or aryloxy group having 1 to 12 carbon atoms; and b is 1 or 2. A is an a-valent hydrocarbyl radical having a molecular weight in the range from 28 to 5000 g/mol, which optionally contains ether groups, amino groups or mercapto groups; a is an integer from 1 to 3; R is a hydrogen atom or an alkyl group having 1 to 12 carbon atoms; Y either is a hydrogen atom or is a monovalent hydrocarbyl radical having 1 to 12 carbon atoms or is an alkoxy or aryloxy group having 1 to 12 carbon atoms; and b is 1 or 2.
A method of producing white radish sprouts containing no less than 0.5 μg of vitamin B12 per g edible portion, characterized by comprising: soaking white radish seeds in a soaking solution containing 200 μg/ml of vitamin B12 at room temperature for 6 hours; removing the seeds from the soaking solution and then cultivating the seeds in the absence of vitamin B12 for 6 days; and harvesting the sprouts. soaking white radish seeds in a soaking solution containing 200 μg/ml of vitamin B12 at room temperature for 6 hours; removing the seeds from the soaking solution and then cultivating the seeds in the absence of vitamin B12 for 6 days; and harvesting the sprouts.
A method for manufacturing an absorbent core of a disposable wearable article, wherein the method uses a feed device, a first drum, and a second drum, the feed device feeds crushed fiber, the first drum is provided with a first area (α1), where the crushed fiber is sucked and made to cling to an outer circumferential portion of the first drum and stacked, and the second drum is provided with a second area (α2), where the crushed fiber is sucked and made to cling to an outer circumferential portion of the second drum and stacked, the second area (α2) being smaller than the first area (α1), the first area (α1) of the first drum is continuously provided in the circumferential direction of the first drum, and the second area (α2) of the second drum is intermittently provided at regular intervals in the circumferential direction of the second drum; wherein the method comprises: a step of forming a thick portion on the second area (α2) of the second drum by stacking the fiber fed from the feed device; a step of transferring the thick portion to a predetermined position in the first area (α1); and a step of forming a thin portion on the first area (α1) of the first drum by stacking the fiber fed from the feed device around the transferred thick portion with the transferred thick portion placed on the first area (α1). wherein the method uses a feed device, a first drum, and a second drum, the feed device feeds crushed fiber, the first drum is provided with a first area (α1), where the crushed fiber is sucked and made to cling to an outer circumferential portion of the first drum and stacked, and the second drum is provided with a second area (α2), where the crushed fiber is sucked and made to cling to an outer circumferential portion of the second drum and stacked, the second area (α2) being smaller than the first area (α1), the first area (α1) of the first drum is continuously provided in the circumferential direction of the first drum, and the second area (α2) of the second drum is intermittently provided at regular intervals in the circumferential direction of the second drum; wherein the method comprises: a step of forming a thick portion on the second area (α2) of the second drum by stacking the fiber fed from the feed device; a step of transferring the thick portion to a predetermined position in the first area (α1); and a step of forming a thin portion on the first area (α1) of the first drum by stacking the fiber fed from the feed device around the transferred thick portion with the transferred thick portion placed on the first area (α1). a step of forming a thick portion on the second area (α2) of the second drum by stacking the fiber fed from the feed device; a step of transferring the thick portion to a predetermined position in the first area (α1); and a step of forming a thin portion on the first area (α1) of the first drum by stacking the fiber fed from the feed device around the transferred thick portion with the transferred thick portion placed on the first area (α1).
A method for determining a static unbalance of a rotor of a wind turbine, wherein the rotor has a known mass moment of inertia and an axis of rotation, comprising: - determining a location-dependent angle acceleration and a location-dependent torque as a function of the rotation angle during a rotor rotation; - determining a moment of inertia as a product of the angle acceleration and the mass moment of inertia, - adding the determined moment of inertia and the determined location-dependent torque into a location-dependent total moment; - determining a trigonometric function from the location-dependent total moment; - determining the static unbalance which has a mass at a distance from the axis of rotation of the rotor, and an angle, depending on the amplitude and the phase shift of the determined trigonometric function. - determining a location-dependent angle acceleration and a location-dependent torque as a function of the rotation angle during a rotor rotation; - determining a moment of inertia as a product of the angle acceleration and the mass moment of inertia, - adding the determined moment of inertia and the determined location-dependent torque into a location-dependent total moment; - determining a trigonometric function from the location-dependent total moment; - determining the static unbalance which has a mass at a distance from the axis of rotation of the rotor, and an angle, depending on the amplitude and the phase shift of the determined trigonometric function.
An apparatus (200; 500) for applying security elements, comprising - at least one value document substrate transport device for transporting a value document substrate web (202; 502), - at least one security elements transport device for transporting a security elements carrier band (204; 504) having a plurality of security elements (210a; 510a), wherein -- the security elements carrier band has a first and a second main surface which oppose each other, -- each security element (210a; 510a) has a first and a second main surface which oppose each other, -- each security element (210a; 510a) is arranged with its first main surface on the first main surface of the security elements carrier band (204; 504), and -- each security element (210a; 510a) has adhesive properties at its second main surface, characterized in that - the apparatus has an application region in order to detach the security elements (210a; 510a) from the security elements carrier band (204; 504) and to apply them with their second main surface onto the value document substrate web (202; 505) and - the security elements (210a; 510a) are lined up one behind the other on the security elements carrier band (204; 504) with a smaller distance than after applying on the value document substrate web (202; 502). - at least one value document substrate transport device for transporting a value document substrate web (202; 502), - at least one security elements transport device for transporting a security elements carrier band (204; 504) having a plurality of security elements (210a; 510a), wherein -- the security elements carrier band has a first and a second main surface which oppose each other, -- each security element (210a; 510a) has a first and a second main surface which oppose each other, -- each security element (210a; 510a) is arranged with its first main surface on the first main surface of the security elements carrier band (204; 504), and -- each security element (210a; 510a) has adhesive properties at its second main surface, characterized in that -- the security elements carrier band has a first and a second main surface which oppose each other, -- each security element (210a; 510a) has a first and a second main surface which oppose each other, -- each security element (210a; 510a) is arranged with its first main surface on the first main surface of the security elements carrier band (204; 504), and -- each security element (210a; 510a) has adhesive properties at its second main surface, - the apparatus has an application region in order to detach the security elements (210a; 510a) from the security elements carrier band (204; 504) and to apply them with their second main surface onto the value document substrate web (202; 505) and - the security elements (210a; 510a) are lined up one behind the other on the security elements carrier band (204; 504) with a smaller distance than after applying on the value document substrate web (202; 502).
An image processor (70,110) comprising: a central processing unit (72,92) core; and a scaling engine coupled to the central processing unit (72, 92) core, the scaling engine capable of performing a method of scaling down a Bayer domain image made up of the number of 2*2 basic units, each having a Red - hereinafter referred to as R - pixel, a Blue - hereinafter referred to as B - pixel and two green - hereinafter referred to as G - pixels arranged in a fixed configuration and replicated throughout the image, the method comprising: dividing the image into 2M*2N input blocks, where M and N are integers greater than or equal to 1; for each 2M*2N input block, averaging R pixels in the block to produce a R pixel in a scaled down image corresponding to the Bayer domain image; averaging B pixels in the block to produce a B pixel in the scaled down image; and dividing the 2M*2N input block into a first triangular region and a second triangular region, the hypotenuses of said triangular regions lying on a diagonal of the block, and averaging G pixels in the first triangular region to produce a first G pixel in the scaled down image, and averaging G pixels in the second triangular region to produce a second G pixel in the scaled down image. a central processing unit (72,92) core; and a scaling engine coupled to the central processing unit (72, 92) core, the scaling engine capable of performing a method of scaling down a Bayer domain image made up of the number of 2*2 basic units, each having a Red - hereinafter referred to as R - pixel, a Blue - hereinafter referred to as B - pixel and two green - hereinafter referred to as G - pixels arranged in a fixed configuration and replicated throughout the image, the method comprising: dividing the image into 2M*2N input blocks, where M and N are integers greater than or equal to 1; for each 2M*2N input block, averaging R pixels in the block to produce a R pixel in a scaled down image corresponding to the Bayer domain image; averaging B pixels in the block to produce a B pixel in the scaled down image; and dividing the 2M*2N input block into a first triangular region and a second triangular region, the hypotenuses of said triangular regions lying on a diagonal of the block, and averaging G pixels in the first triangular region to produce a first G pixel in the scaled down image, and averaging G pixels in the second triangular region to produce a second G pixel in the scaled down image. dividing the image into 2M*2N input blocks, where M and N are integers greater than or equal to 1; for each 2M*2N input block, averaging R pixels in the block to produce a R pixel in a scaled down image corresponding to the Bayer domain image; averaging B pixels in the block to produce a B pixel in the scaled down image; and dividing the 2M*2N input block into a first triangular region and a second triangular region, the hypotenuses of said triangular regions lying on a diagonal of the block, and averaging G pixels in the first triangular region to produce a first G pixel in the scaled down image, and averaging G pixels in the second triangular region to produce a second G pixel in the scaled down image.
Lipopeptide-compound or lipoprotein-compound according to formula I, or lipopeptide-conjugate or a lipoprotein-conjugate according to formula I, having an adjuvant moiety, an antigen moiety and, optionally, a conjugate moiety: wherein R 1 and R 2 can be identical or different and are selected from C 7-25 alkyl, C 7-25 alkenyl or C 7-25 alkynyl; R 3 and R 4 can be identical or different and are selected from hydrogen or C 1-6 Alkyl group; X is selected from S, O or CH 2; Y 1 is an amino acid sequence of 6 to 30 amino acid residues; Y 2 is an amino acid sequence of 6 to 30 amino acid residues; L is absent or is an amino acid sequence of 1 to 10 amino acid residues; R 5 is hydrogen or a covalently linked conjugate moiety comprising polyalkylene glycol units of the formula II Z 1 -[(CHR 6) n -O)] x -(CH 2) 2 -Z 2 where Z 1 is a hydrocarbon or a NR 3 group whereby R 3 is defined as above, R6 is independently any one of hydrogen, OH, C 1-6 alkyl group, OR 7 or COR 8; R 7 is independently any one of hydrogen or C 1-6 alkyl group; R 8 is independently any one of hydrogen, OH, OR 7 or NR 9 R 10; R 9 and R 10 are independently any one of hydrogen or hydrocarbon which may contain heteroatom (s) and which may form a ring; x is an integer of 1 to 100; n is independently an integer of 1 to 10; Z 2 is a hydrogen or a hydrocarbon which may contain heteroatom(s), wherein Y 1 represents a CD4 epitope and Y 2 represents a CD8 epitope of the same or different antigen, able to elicit an immune response in an individual, or vice versa. wherein R 1 and R 2 can be identical or different and are selected from C 7-25 alkyl, C 7-25 alkenyl or C 7-25 alkynyl; R 3 and R 4 can be identical or different and are selected from hydrogen or C 1-6 Alkyl group; X is selected from S, O or CH 2; Y 1 is an amino acid sequence of 6 to 30 amino acid residues; Y 2 is an amino acid sequence of 6 to 30 amino acid residues; L is absent or is an amino acid sequence of 1 to 10 amino acid residues; R 5 is hydrogen or a covalently linked conjugate moiety comprising polyalkylene glycol units of the formula II Z 1 -[(CHR 6) n -O)] x -(CH 2) 2 -Z 2 where Z 1 is a hydrocarbon or a NR 3 group whereby R 3 is defined as above, R6 is independently any one of hydrogen, OH, C 1-6 alkyl group, OR 7 or COR 8; R 7 is independently any one of hydrogen or C 1-6 alkyl group; R 8 is independently any one of hydrogen, OH, OR 7 or NR 9 R 10; R 9 and R 10 are independently any one of hydrogen or hydrocarbon which may contain heteroatom (s) and which may form a ring; x is an integer of 1 to 100; n is independently an integer of 1 to 10; Z 2 is a hydrogen or a hydrocarbon which may contain heteroatom(s), wherein Y 1 represents a CD4 epitope and Y 2 represents a CD8 epitope of the same or different antigen, able to elicit an immune response in an individual, or vice versa.
A Light Engine Module comprising: - a positive power supply line (LED+), - a common ground line (LED-), - a plurality of LEDs connected in series between said positive power supply line (LED+) and said common ground line (LED-), - a communication line, - a current set resistor (Rset) connected between the communication line and the common ground line (LED-), with its value of conductance being indicative for the current demand of the Light Engine Module, characterized in that the Light Engine Module comprises a variable current generator configured to take power from said positive power supply line (LED+) by deriving a voltage from either the whole number of series connected LEDs or a portion of the series connected LEDs, said variable current generator connected to said communication line and generating a compensation current, thus modifying the current flowing through said communication line, said variable current generator comprising at least one sensor providing at least one measurement signal, wherein said variable current generator is configured to determine said compensation current as a function of said at least one measurement signal provided by said at least one sensor. - a positive power supply line (LED+), - a common ground line (LED-), - a plurality of LEDs connected in series between said positive power supply line (LED+) and said common ground line (LED-), - a communication line, - a current set resistor (Rset) connected between the communication line and the common ground line (LED-), with its value of conductance being indicative for the current demand of the Light Engine Module,
Tilting device for microscopy, comprising: a sample carrier mount, an optical component with an optical axis, and an inclination unit with a motor, where said optical axis is aligned with respect to a base side of said sample carrier mount, where said sample carrier mount and said optical component are mounted to be tiltable, and where the alignment of said optical axis with respect to said base side of said sample carrier mount is maintained when said sample carrier mount and said optical component are tilted, where said motor is connected to said optical component and/or to said sample carrier mount, where said motor is configured such that it tilts said sample carrier mount and said optical component, and where the inclination unit is configured such that it generates a continuous tilt motion, in particular a seesaw motion, of the tilting device. a sample carrier mount, an optical component with an optical axis, and an inclination unit with a motor, where said optical axis is aligned with respect to a base side of said sample carrier mount, where said sample carrier mount and said optical component are mounted to be tiltable, and where the alignment of said optical axis with respect to said base side of said sample carrier mount is maintained when said sample carrier mount and said optical component are tilted, where said motor is connected to said optical component and/or to said sample carrier mount, where said motor is configured such that it tilts said sample carrier mount and said optical component, and where the inclination unit is configured such that it generates a continuous tilt motion, in particular a seesaw motion, of the tilting device.
A computer comprising: a plurality of internal speakers; an interface configured to provide information for audio output to first and second external speakers (306, 308); an audio playback circuit configured to provide a first audio information to at least one of the plurality of internal speakers or the first and second external speakers (306, 308), wherein the first audio information comprises information for a left audio channel and a right audio channel; the audio playback circuit further configured to provide a second audio information to the plurality of internal speakers, wherein the second audio information comprises information for a center audio channel; a determination circuit configured to determine whether the first and second external speakers (306, 308) are connected to the interface; and a controller configured to control the plurality of internal speakers to output the first audio information and the second audio information when the determination circuit determines that the first and second external speakers (306, 308) are not connected to the interface, and to control the plurality of internal speakers to output the second audio information and to control the interface so that the first and second external speakers (306, 308) output the first audio information when the determination circuit determines that the first and second external speakers (306, 308) are connected to the interface. a plurality of internal speakers; an interface configured to provide information for audio output to first and second external speakers (306, 308); an audio playback circuit configured to provide a first audio information to at least one of the plurality of internal speakers or the first and second external speakers (306, 308), wherein the first audio information comprises information for a left audio channel and a right audio channel; the audio playback circuit further configured to provide a second audio information to the plurality of internal speakers, wherein the second audio information comprises information for a center audio channel; a determination circuit configured to determine whether the first and second external speakers (306, 308) are connected to the interface; and a controller configured to control the plurality of internal speakers to output the first audio information and the second audio information when the determination circuit determines that the first and second external speakers (306, 308) are not connected to the interface, and to control the plurality of internal speakers to output the second audio information and to control the interface so that the first and second external speakers (306, 308) output the first audio information when the determination circuit determines that the first and second external speakers (306, 308) are connected to the interface.
A wetsuit for aquatic activities, the wetsuit comprising: a base layer formed from a thermal insulation material, the base layer having a first surface and an opposite second surface; and a backing layer secured to the first surface of the base layer, the backing layer having less stretch than the base layer, characterized in that a plurality of sipes only extend through the backing layer secured to the first surface of the base layer. a base layer formed from a thermal insulation material, the base layer having a first surface and an opposite second surface; and a backing layer secured to the first surface of the base layer, the backing layer having less stretch than the base layer, characterized in that a plurality of sipes only extend through the backing layer secured to the first surface of the base layer.
Method for checking a membrane leaktightness of at least one membrane of an electrolyzer which comprises two electrolyzer volumes separated from one another by the at least one membrane and is configured in order to produce two product gases (10, 30) from a starting liquid by means of electrolysis, wherein - during electrolysis, an electrolysis current strength is detected and a liquid flow rate of the starting liquid between the two electrolyzer volumes is determined, - and a ratio parameter, which is proportional to the ratio of the liquid flow rate determined and the electrolysis current strength detected, is formed and is used to check the membrane leaktightness, wherein a first ratio threshold value (Q S1) for the ratio parameter is specified, and a leak of at least one membrane is inferred when the ratio parameter exceeds the specified first ratio threshold value (Q S1), and/or a second ratio threshold value (Q S2) for the ratio parameter is specified, and a leak of at least one membrane is inferred when the ratio parameter falls below the specified second ratio threshold value (Q S2). - during electrolysis, an electrolysis current strength is detected and a liquid flow rate of the starting liquid between the two electrolyzer volumes is determined, - and a ratio parameter, which is proportional to the ratio of the liquid flow rate determined and the electrolysis current strength detected, is formed and is used to check the membrane leaktightness, wherein a first ratio threshold value (Q S1) for the ratio parameter is specified, and a leak of at least one membrane is inferred when the ratio parameter exceeds the specified first ratio threshold value (Q S1), and/or a second ratio threshold value (Q S2) for the ratio parameter is specified, and a leak of at least one membrane is inferred when the ratio parameter falls below the specified second ratio threshold value (Q S2).