mhurhangee/patent-ind-claim-en huggingface dataset:
One-component thermosetting epoxy resin composition comprising a) at least one epoxy resin A having an average of more than one epoxy group per molecule; b) at least one latent curing agent for epoxy resins B; c) at least one compound of the formula where the substituents R 1 and R 2 are independently an unsubstituted benzene, a halogenated benzene, alkoxylated benzene, an alkylated benzene or an N derivative of an aniline; and where the substituent R 3 is H or an alkyl group having 1 to 10 carbon atoms; and where the weight ratio of the at least one epoxy resin A having an average of more than one epoxy group per molecule to the at least one compound of the formula (III) is 5-800; and where the one-component thermosetting epoxy resin composition has a viscosity at 25°C of 500-3000 Pa*s, especially 1000-2500 Pa*s, preferably 1000-2000 Pa*s. a) at least one epoxy resin A having an average of more than one epoxy group per molecule; b) at least one latent curing agent for epoxy resins B; c) at least one compound of the formula where the substituents R 1 and R 2 are independently an unsubstituted benzene, a halogenated benzene, alkoxylated benzene, an alkylated benzene or an N derivative of an aniline; and where the substituent R 3 is H or an alkyl group having 1 to 10 carbon atoms; and where the weight ratio of the at least one epoxy resin A having an average of more than one epoxy group per molecule to the at least one compound of the formula (III) is 5-800; and where the one-component thermosetting epoxy resin composition has a viscosity at 25°C of 500-3000 Pa*s, especially 1000-2500 Pa*s, preferably 1000-2000 Pa*s.
A bale wrap mechanism for use with a roll of wrap material, the bale wrap mechanism comprising: a frame including a wrap chute formed from one or more perimeter walls , wherein the wrap chute defines a wrap axis extending longitudinally therethrough, and wherein the one or more perimeter walls at least partially define a passageway therebetween; a wrap arm coupled to the frame , the wrap arm having a mounting point movable with respect to the frame ; a shaft coupled to the mounting point and configured to support a roll of wrap material thereon; wherein the shaft is configured to travel along a wrap path during a wrapping process, wherein the wrap path surrounds the passageway , and wherein the wrap path is substantially rectangular in shape characterized in that the wrap arm includes a first wrapping arm pivotably coupled to the frame and a second wrapping arm pivotably coupled to the first wrapping arm , and wherein the second wrapping arm includes the mounting point . a frame including a wrap chute formed from one or more perimeter walls , wherein the wrap chute defines a wrap axis extending longitudinally therethrough, and wherein the one or more perimeter walls at least partially define a passageway therebetween; a wrap arm coupled to the frame , the wrap arm having a mounting point movable with respect to the frame ; a shaft coupled to the mounting point and configured to support a roll of wrap material thereon; wherein the shaft is configured to travel along a wrap path during a wrapping process, wherein the wrap path surrounds the passageway , and wherein the wrap path is substantially rectangular in shape characterized in that the wrap arm includes a first wrapping arm pivotably coupled to the frame and a second wrapping arm pivotably coupled to the first wrapping arm , and wherein the second wrapping arm includes the mounting point .
A para-amino-benzyl linker compound of Formula (I): wherein: • R 1 represents a hydroxy group or a halogen atom; • R 2 represents a -S(O) 2 (OH) group, a -S(O) 2 (O - M + ) group, a linear or branched -(C 1 -C 4 )alkyl-S(O) 2 (OH) group, a linear or branched -(C 1 -C 4 )alkyl-S(O) 2 (O - M + ) group, a linear or branched -halo(C 1 -C 4 )alkyl-S(O) 2 (OH) group, or a linear or branched -halo(C 1 -C 4 )alkyl-S(O) 2 (O - M + ) group; • A 1 represents a -C(O)-CH(R 3 )-NH- group; • A 2 represents a -C(O)-CH(R 4 )-NH- group, a group, a group, or a group; • R 3 and R 4 , independently of one another, represent the side chain of an amino acid; • X represents a hydrogen atom, a hydroxy group, or a protecting group; • M + represents a pharmaceutically acceptable monovalent cation. • R 1 represents a hydroxy group or a halogen atom; • R 2 represents a -S(O) 2 (OH) group, a -S(O) 2 (O - M + ) group, a linear or branched -(C 1 -C 4 )alkyl-S(O) 2 (OH) group, a linear or branched -(C 1 -C 4 )alkyl-S(O) 2 (O - M + ) group, a linear or branched -halo(C 1 -C 4 )alkyl-S(O) 2 (OH) group, or a linear or branched -halo(C 1 -C 4 )alkyl-S(O) 2 (O - M + ) group; • A 1 represents a -C(O)-CH(R 3 )-NH- group; • A 2 represents a -C(O)-CH(R 4 )-NH- group, a group, a group, or a group; • R 3 and R 4 , independently of one another, represent the side chain of an amino acid; • X represents a hydrogen atom, a hydroxy group, or a protecting group; • M + represents a pharmaceutically acceptable monovalent cation.
Device for detecting process parameters during a pass through an assembly line for assembling electronic components and/or for applying joining materials, having: a carrier , which is designed for being transported by a conveying system of the assembly line and for receiving a test plate , and at least one sensor (F, E, A, T) for measuring at least one process parameter during the pass, having one or more force sensors (F), which are arranged such that a force and/or force distribution that acts on the test plate during the pass can be detected. a carrier , which is designed for being transported by a conveying system of the assembly line and for receiving a test plate , and at least one sensor (F, E, A, T) for measuring at least one process parameter during the pass, having one or more force sensors (F), which are arranged such that a force and/or force distribution that acts on the test plate during the pass can be detected.
Method for producing a DNA hydrogel comprising the following steps: a) Providing basis DNA b) Enzymatically digesting basis DNA to obtain linear dsDNA building blocks, and c) Providing DNA hydrogel by assembly of the building blocks, wherein the assembly involves DNA hybridization and/or enzymatic ligation, wherein the method further comprises the step of adding non-linear dsDNA building blocks prior to assembly and wherein non-linear dsDNA building blocks are added in an amount of at most 10 wt.-% based on the weight of the linear dsDNA building blocks. a) Providing basis DNA b) Enzymatically digesting basis DNA to obtain linear dsDNA building blocks, and c) Providing DNA hydrogel by assembly of the building blocks, wherein the assembly involves DNA hybridization and/or enzymatic ligation,
A mechanical seal comprising: a rotating-side sealing ring ; a stationary-side sealing ring provided within a case and sliding on the rotating-side sealing ring ; a biasing member for biasing the stationary-side sealing ring to the rotating-side sealing ring ; and an engagement means for restricting the rotational relative movement between the case and the stationary-side sealing ring , wherein the biasing member is arranged radially outside the stationary-side sealing ring , wherein the engagement means includes: an inside engagement part for restricting the rotational relative movement between the engagement means and the stationary-side sealing ring by engaging with the stationary-side sealing ring in the rotational direction, and an outside engagement part for restricting, on the outer diameter side of the inside engagement part , the rotational relative movement between the engagement means and the case characterised in that said restriction is made by engaging with the case in the rotational direction. a rotating-side sealing ring ; a stationary-side sealing ring provided within a case and sliding on the rotating-side sealing ring ; a biasing member for biasing the stationary-side sealing ring to the rotating-side sealing ring ; and an engagement means for restricting the rotational relative movement between the case and the stationary-side sealing ring , wherein the biasing member is arranged radially outside the stationary-side sealing ring , wherein the engagement means includes: an inside engagement part for restricting the rotational relative movement between the engagement means and the stationary-side sealing ring by engaging with the stationary-side sealing ring in the rotational direction, and an outside engagement part for restricting, on the outer diameter side of the inside engagement part , the rotational relative movement between the engagement means and the case characterised in that said restriction is made by engaging with the case in the rotational direction.
Method for monitoring a machine, wherein a step of transferring a first preliminary product from a first machine part to a second machine part and/or an operation of rolling on the first preliminary product is performed, characterized in that measured acceleration values of a component of the rubber-processing machine are determined, wherein the measured acceleration values or characteristic values derived on the basis of these are compared with at least one reference value, with a signal being output if a difference between the measured acceleration values or the derived characteristic values and the at least one reference value is exceeded. wherein a step of transferring a first preliminary product from a first machine part to a second machine part and/or an operation of rolling on the first preliminary product is performed, characterized in that measured acceleration values of a component of the rubber-processing machine are determined, wherein the measured acceleration values or characteristic values derived on the basis of these are compared with at least one reference value, with a signal being output if a difference between the measured acceleration values or the derived characteristic values and the at least one reference value is exceeded.
A loading unit for a surgical stapling apparatus comprising: an anvil assembly having a tissue facing surface defining a central longitudinal slot and staple forming pockets therein; a staple cartridge assembly having a tissue facing surface defining a central longitudinal slot and staple pockets therein; and a surgical buttress assembly associated with the anvil or staple cartridge assembly, the surgical buttress assembly including: a buttress material positioned on the tissue facing surface of the anvil or staple cartridge assembly; and a buttress frame supporting the buttress material, the buttress frame movable from an undeployed position in which the buttress frame retains the buttress material within the boundaries of the tissue facing surface of the anvil or staple cartridge assembly, the loading unit being characterised in that the frame is movable from the undeployed position to a deployed position in which the buttress frame extends the buttress material laterally outwardly from the anvil or staple cartridge assembly. an anvil assembly having a tissue facing surface defining a central longitudinal slot and staple forming pockets therein; a staple cartridge assembly having a tissue facing surface defining a central longitudinal slot and staple pockets therein; and a surgical buttress assembly associated with the anvil or staple cartridge assembly, the surgical buttress assembly including: a buttress material positioned on the tissue facing surface of the anvil or staple cartridge assembly; and a buttress frame supporting the buttress material, the buttress frame movable from an undeployed position in which the buttress frame retains the buttress material within the boundaries of the tissue facing surface of the anvil or staple cartridge assembly, the loading unit being characterised in that the frame is movable from the undeployed position to a deployed position in which the buttress frame extends the buttress material laterally outwardly from the anvil or staple cartridge assembly. a buttress material positioned on the tissue facing surface of the anvil or staple cartridge assembly; and a buttress frame supporting the buttress material, the buttress frame movable from an undeployed position in which the buttress frame retains the buttress material within the boundaries of the tissue facing surface of the anvil or staple cartridge assembly, the loading unit being characterised in that the frame is movable from the undeployed position to a deployed position in which the buttress frame extends the buttress material laterally outwardly from the anvil or staple cartridge assembly.
A smoke inhalation device comprising: a housing ; a first cartridge (114; 214) configured to contain a first substance; a second cartridge (116; 216) configured to contain a second substance; a first release device (118; 218) associated with the first cartridge (114; 214), the first release device (118; 218) being configured to release the first substance; a second release device (118; 218) associated with the second cartridge (116; 216), the second release device (120; 220) being configured to release the second substance; and a controller (124; 224) operatively and communicatively coupled to the first release device (118; 218) and the second release device (120; 220), the controller (124; 224) being configured to control the first release device (118; 218) and the second release device (120; 220); characterized in that the first release device (118; 218) is embedded in the first cartridge (114; 214) and/or the second release device (120; 220) is embedded in the second cartridge (116; 216). a housing ; a first cartridge (114; 214) configured to contain a first substance; a second cartridge (116; 216) configured to contain a second substance; a first release device (118; 218) associated with the first cartridge (114; 214), the first release device (118; 218) being configured to release the first substance; a second release device (118; 218) associated with the second cartridge (116; 216), the second release device (120; 220) being configured to release the second substance; and a controller (124; 224) operatively and communicatively coupled to the first release device (118; 218) and the second release device (120; 220), the controller (124; 224) being configured to control the first release device (118; 218) and the second release device (120; 220); characterized in that the first release device (118; 218) is embedded in the first cartridge (114; 214) and/or the second release device (120; 220) is embedded in the second cartridge (116; 216).
A polyethylene, characterized in that the polyethylene has a melt flow rate at 2.16 kg loading (MFR 2 ), determined according to method ISO 1133-1:2011, which MFR 2 is A g/10 min and A 1 ≤ A ≤ A 2 ; wherein A 1 is 0.5 and A 2 is 1.70, and contains a total amount of vinyl groups which is B vinyl groups per 1000 carbon atoms, and B 1 ≤ B , wherein B 1 is 0.45, determined according to method ASTM D6248-98.
An amphiphilic degradable block copolymer, comprising the structure of wherein each of R 1 and R 2 is independently a C 1 -C 2 alkyl group; R is a linear alkyl chain of a length from C 6 to C 24 ; i is an integer from 10 to 5,000; each m is an integer from 1 to 1,000; and each n is an integer from 10 to 5,000. each of R 1 and R 2 is independently a C 1 -C 2 alkyl group; R is a linear alkyl chain of a length from C 6 to C 24 ; i is an integer from 10 to 5,000; each m is an integer from 1 to 1,000; and each n is an integer from 10 to 5,000.
Belt , comprising: a base material , in which reinforcing elements are embedded, and a sensor unit , which is embedded in the base material , wherein the sensor unit has an electrical resistance component , an electrical capacitance component and an electrical inductance component , wherein the resistance component is designed as a temperature-dependent resistance component connected to the base material , so that an electrical resistance of the resistance component is determined in dependence on a temperature of the base material of the belt , wherein the components of the sensor unit are coupled to an electrical oscillating circuit , so that an associated resonant frequency is determined in dependence on the electrical resistance of the resistance component and at least indirectly represents the temperature of the base material of the belt , wherein the electrical inductance component is designed for wirelessly receiving a first electromagnetic wave, in order to receive electrical energy for the excitation of the oscillating circuit , and wherein the electrical inductance component is designed for generating and emitting a second electromagnetic wave with the resonant frequency. a base material , in which reinforcing elements are embedded, and a sensor unit , which is embedded in the base material , wherein the sensor unit has an electrical resistance component , an electrical capacitance component and an electrical inductance component , wherein the resistance component is designed as a temperature-dependent resistance component connected to the base material , so that an electrical resistance of the resistance component is determined in dependence on a temperature of the base material of the belt , wherein the components of the sensor unit are coupled to an electrical oscillating circuit , so that an associated resonant frequency is determined in dependence on the electrical resistance of the resistance component and at least indirectly represents the temperature of the base material of the belt , wherein the electrical inductance component is designed for wirelessly receiving a first electromagnetic wave, in order to receive electrical energy for the excitation of the oscillating circuit , and wherein the electrical inductance component is designed for generating and emitting a second electromagnetic wave with the resonant frequency.
An intracranial pressure estimating method for estimating an intracranial pressure (ICP) from time-series data on external ear canal pressure pulse waves performed by an arithmetic unit , the method comprising: an acquisition step (S10) of acquiring external ear canal pressure pulse wave data obtained by digitalizing time-series data on external ear canal pressure pulse waves of a subject caused by blood flow pulse wave propagation from the carotid to the ear canal; a filtering step (S11) of subjecting the external ear canal pressure pulse wave data to high-pass filter processing; an analysis step (S12) of analyzing said external ear canal pressure pulse wave data to calculate the first formant frequency (f1) in the external ear canal pressure pulse wave data by performing linear predictive analysison high-pass filtered data obtained in the filtering step (S11), the first formant frequency (f1) relating to a natural resonant frequency of vibrating intracerebral substance inside the cranium; a correction step (S13) of correcting the first formant frequency (f1) based on personal information on the subject to calculate a corrected value (Xf1); and an estimation step (S14) of calculating an estimated value (PICP) of an intracranial pressure based on the corrected value (Xf1). an acquisition step (S10) of acquiring external ear canal pressure pulse wave data obtained by digitalizing time-series data on external ear canal pressure pulse waves of a subject caused by blood flow pulse wave propagation from the carotid to the ear canal; a filtering step (S11) of subjecting the external ear canal pressure pulse wave data to high-pass filter processing; an analysis step (S12) of analyzing said external ear canal pressure pulse wave data to calculate the first formant frequency (f1) in the external ear canal pressure pulse wave data by performing linear predictive analysison high-pass filtered data obtained in the filtering step (S11), the first formant frequency (f1) relating to a natural resonant frequency of vibrating intracerebral substance inside the cranium; a correction step (S13) of correcting the first formant frequency (f1) based on personal information on the subject to calculate a corrected value (Xf1); and an estimation step (S14) of calculating an estimated value (PICP) of an intracranial pressure based on the corrected value (Xf1).
Brake monitoring device for detecting a value indicative of the actuation stroke and/or release stroke of a thrust element of a brake actuating mechanism, the thrust element being actuated by a lever (1;34) of said brake actuating mechanism, comprising a sensor (12; 19; 22; 27; 37) for sensing variations in a physical property of at least one part of said brake actuating mechanism, whereby the sensor (12; 19; 22; 27; 37) and said part of the brake actuating mechanism are arranged so that by the relative movement between said part of the brake actuating mechanism and the sensor (12; 19; 22; 27; 37) repeated variations in said physical property along a path (10; 17; 20; 28; 35) of said relative movement are sensed, characterized in that said path (10; 17; 20; 28; 35) of repeated variations in physical property is formed along one of the lever (1; 34) and a stationary part being adjacent to said lever.
A method to detect the presence or absence of an MREJ type xiii methicillin-resistant Staphylococcus aureus (MRSA) strain characterized by SEQ ID NO: 15, 25 or 26 comprising: contacting a sample to be analyzed for the presence or absence of said MREJ type xiii MRSA strain characterized by SEQ ID NO: 15, 25 or 26 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 15, 25 or 26 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 15, 25 or 26; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xiii MRSA strain; and detecting the absence or presence of said amplicon. contacting a sample to be analyzed for the presence or absence of said MREJ type xiii MRSA strain characterized by SEQ ID NO: 15, 25 or 26 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 15, 25 or 26 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 15, 25 or 26; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xiii MRSA strain; and detecting the absence or presence of said amplicon.
Railway works machine comprises a machine frame and a works shuttle , the machine frame having two opposite longitudinal end portions and a middle portion connecting the opposite longitudinal end portions , a volume being created underneath the middle portion of the machine frame to house at least part of the works shuttle , the works shuttle comprising a shuttle frame and at least one works unit , the shuttle frame being able to move with respect to the machine frame , in a longitudinal direction of the works machine , back and forth between two end-of-travel positions, the works machine further comprising a longitudinal locking device which is capable of securing the machine frame to the shuttle frame in a travel position of the railway works machine, wherein the longitudinal locking device comprises a first locking device between a first of the two longitudinal end portions and the shuttle frame , characterized in that the locking device comprises a second locking device between the shuttle frame and a second of the two longitudinal end portions , each of the first and second locking devices being capable of withstanding a critical load exceeding 500 kN, preferably exceeding 900 kN, preferably exceeding 1500 kN, in the longitudinal direction so that the longitudinal locking system is capable of securing the machine frame to the shuttle frame in the travel position of the machine by securing the first of the two longitudinal end portions to the shuttle frame with the first locking device in the locking position and the second of the two longitudinal end portions to the shuttle frame with the second locking device in the locking position so that the shuttle frame and the machine frame form a structural whole.