mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a chloropropene of the formula CX 3 CCl=CH 2 wherein X each independently is Cl or F and at least one X is F, comprising the steps of (a) reacting a starting material containing a compound of the formula CX 3 -CClY-CH 2 Y (Ia) wherein X each independently is Cl or F, and Y each independently is H, F, or Cl; and/or a compound of the formula CY 3 -CCl=CZ 2 (Ib) wherein Y each independently is H or Cl, and Z each independently is H, F, or Cl, with HF in the presence of a catalyst; (b) subjecting the reaction mixture obtained in step (a) to distillation to separate the mixture into a first stream comprising the compound as a main component and a second stream comprising unreacted starting material and unreacted HF as main components; and (c) recycling the second stream separated in step (b) to the reaction of step (a), wherein the distillation of step (b) is performed under conditions in which the unreacted starting material and the unreacted HF do not undergo liquid-liquid separation at a portion of a distillation column from which the second stream is withdrawn. (a) reacting a starting material containing a compound of the formula CX 3 -CClY-CH 2 Y (Ia) wherein X each independently is Cl or F, and Y each independently is H, F, or Cl; and/or a compound of the formula CY 3 -CCl=CZ 2 (Ib) wherein Y each independently is H or Cl, and Z each independently is H, F, or Cl, with HF in the presence of a catalyst; (b) subjecting the reaction mixture obtained in step (a) to distillation to separate the mixture into a first stream comprising the compound as a main component and a second stream comprising unreacted starting material and unreacted HF as main components; and (c) recycling the second stream separated in step (b) to the reaction of step (a),
Plastic pipe T-connection having at least one first pipeline and having at least one further plastic pipeline, wherein the first pipeline has at least one bore in the pipe wall, the diameter of which at least one bore is greater than the internal diameter of the further pipeline by a predetermined amount, and, at its end assigned to the first pipeline, the further pipeline has a hinged sleeve, wherein the hinged sleeve has a first saddle-shaped component which is assigned to the further pipeline, wherein the further pipeline opens out in a fluid-conducting manner into the saddle-shaped component, and the hinged sleeve has a second saddle-shaped component, wherein the hinged sleeve is pivoted closed around the first pipeline and has a diameter which corresponds to the external diameter of the first pipeline, wherein the opening of the further pipeline is aligned with the bore in the pipe wall of the first pipeline, characterized in that the second saddle-shaped component, by means of a film hinge, is connected to the first component and is able to be pivoted together with the latter to form the hinged sleeve, and the first pipeline has an elastic encapsulation at its external surface, wherein the bore in the wall of the first pipeline also passes through the enclosure.
A touch sensitive screen arrangement comprising a screen including an optically dispersive base plate, and means for transmitting light onto and into said base plate in response to an external body touching said screen at a touch point such that a location of incident light on the surface of said base plate is representative of a relative position of said touch point on said screen, wherein said base plate is configured to capture and transmit within the base plate light incident thereon and disperse said transmitted light by spreading and energy loss, an optically dispersive characteristic of said base plate being such that a decrease in intensity of said transmitted light with distance from said location of incidence on said base plate surface approximates an exponential function, the arrangement further comprising at least one sensor for detecting an intensity of light transmitted out of the base plate at a respective edge of said base plate, and processing means for calculating the relative position of said touch point on said screen from said detected light intensity and said exponential function and generating a control signal representative of a control input derived from said relative position of said touch point.
Asymmetric bicycle chain inner link (50; 150; 250) having two connecting openings (54, 56; 154, 156; 254, 256) which are formed at a distance from each other, pass through the inner link (50; 150; 250) in the thickness direction thereof and are each designed for receiving a connecting component in order to connect the inner link (50; 150; 250) to a further inner link (50; 150; 250) in order to form an inner link member of a bicycle chain, wherein a connecting straight line connecting respective centre axes (M54, M56; M154, M156; M254, M256) of the connecting openings (54, 56; 154, 156; 254, 256) defines a longitudinal direction of the inner link (50; 150; 250), and wherein a direction orthogonal both with respect to the longitudinal direction and with respect to the thickness direction is a width direction of the inner link (50; 150; 250), wherein the inner link (50; 150; 250) has, on its inner side facing the further inner link (50; 150; 250) of the same inner link member in the completely mounted state in a bicycle chain, two flat surfaces (62, 64; 162, 164; 262, 264) which are provided at a distance from each other in the longitudinal direction of the inner link (50; 150; 250) and are separated by a depression region (74; 174; 274), which is placed in the longitudinal direction between them, and of which each flat surface (62, 64; 162, 164; 262, 264) surrounds another of the connecting openings (54, 56; 154, 156; 254, 256), wherein the depression region (74; 174; 274) is set back with respect to the flat surfaces (62, 64; 162, 164; 262, 264) towards an outer side of the inner link (50; 150; 250) that is opposite the inner side, characterized in that a distance, to be measured along the longitudinal direction, between the flat surfaces (62, 64; 162, 164; 262, 264) changes along the width direction in such a manner that a location (76; 176; 276) situated between two distance regions having in each case greater distance values and having the smallest, but finitely large minimum distance value is situated at a distance away from the connecting straight line in the width direction.
A metal porous body having a frame of a three-dimensional network structure, the frame being formed of a plurality of bone members connected to each other, the plurality of bone members defining openings in a surface of the metal porous body, the plurality of bone members defining voids inside the metal porous body, the openings and the voids communicating with each other, wherein the bone members are hollow by virtue of having cavities inside thereof, a porosity being from 5 volume % to 10 volume %, wherein the porosity (volume %) is calculated by { 1-(apparent mass of metal porous body per unit volume)/(true specific gravity of metal porous body)} × 100, wherein the "true specific gravity of metal porous body" means the specific gravity of the metal constituting the metal porous body, and a density being from 6 g/cm 3 to 8.5 g/cm 3, wherein the density (g/cm 3) is calculated by dividing the mass (g) of the metal porous body by the apparent volume (cm 3), wherein the "apparent volume" is the volume of the metal porous body estimated from the outer shape thereof. the frame being formed of a plurality of bone members connected to each other, the plurality of bone members defining openings in a surface of the metal porous body, the plurality of bone members defining voids inside the metal porous body, the openings and the voids communicating with each other, wherein the bone members are hollow by virtue of having cavities inside thereof, a porosity being from 5 volume % to 10 volume %, wherein the porosity (volume %) is calculated by { 1-(apparent mass of metal porous body per unit volume)/(true specific gravity of metal porous body)} × 100, wherein the "true specific gravity of metal porous body" means the specific gravity of the metal constituting the metal porous body, and a density being from 6 g/cm 3 to 8.5 g/cm 3, wherein the density (g/cm 3) is calculated by dividing the mass (g) of the metal porous body by the apparent volume (cm 3), wherein the "apparent volume" is the volume of the metal porous body estimated from the outer shape thereof.
A piezoelectric vibration sensor for fluid leak detection comprising: at least one piezoelectric crystal (102, 302) having an upper surface and a lower surface; a base having an attachment section defining an attachment surface, the base including a first calibration mass and characterized in that the base includes a second calibration mass and defining a notch between the first calibration mass and the second calibration mass; wherein the first calibration mass has a calibration mass thickness greater than a thickness of the attachment section of the base and the second calibration mass has a calibration mass thickness greater than the thickness of the attachment section of the base; wherein a one of the at least one piezoelectric crystal upper surface and lower surface is attached to the attachment surface of the base; wherein the first and the second calibration masses are external to the at least one piezoelectric crystal; and wherein the calibration masses are configured to regulate the stiffness of the sensor. at least one piezoelectric crystal (102, 302) having an upper surface and a lower surface; a base having an attachment section defining an attachment surface, the base including a first calibration mass and characterized in that the base includes a second calibration mass and defining a notch between the first calibration mass and the second calibration mass; wherein the first calibration mass has a calibration mass thickness greater than a thickness of the attachment section of the base and the second calibration mass has a calibration mass thickness greater than the thickness of the attachment section of the base; wherein a one of the at least one piezoelectric crystal upper surface and lower surface is attached to the attachment surface of the base; wherein the first and the second calibration masses are external to the at least one piezoelectric crystal; and wherein the calibration masses are configured to regulate the stiffness of the sensor.
A lighting device for a motor vehicle, comprising: - one or a plurality of light sources which can emit light rays; - one or a plurality of collectors, with a reflective surface, the or each reflective surface being configured to collect and reflect the light rays emitted by the one or more light sources, known as reflected light rays, into a reflected light beam along an optical axis; - an optical system comprising a projection lens (12.1) which provides a first optical function providing the projection of at least most of the reflected light beam into a projected light beam by imaging part of the or each reflective surface situated, in a general direction of propagation of the light beam, to the rear of the or each corresponding light source; characterized in that the optical system comprises an additional part (12.2) which is distinct from the projection lens, and providing a second optical function providing diffusion of at least most of the light beam reflected into a diffused light beam, said optical system being rotatable around an axis of rotation, between a first position in which the first function is active, and a second position in which the second function is active. - one or a plurality of light sources which can emit light rays; - one or a plurality of collectors, with a reflective surface, the or each reflective surface being configured to collect and reflect the light rays emitted by the one or more light sources, known as reflected light rays, into a reflected light beam along an optical axis; - an optical system comprising a projection lens (12.1) which provides a first optical function providing the projection of at least most of the reflected light beam into a projected light beam by imaging part of the or each reflective surface situated, in a general direction of propagation of the light beam, to the rear of the or each corresponding light source;
A heat shield assembly for a gas turbine engine comprising: a first heat shield ply assembly defined about an axis; and a second heat shield ply assembly defined about the axis, the second heat shield ply assembly receivable at least partially over the first heat shield assembly, characterised by further comprising: a band clamp to circumferentially retain the first heat shield ply assembly and the second heat shield ply assembly, wherein the first heat shield ply assembly is an inner heat shield and the second heat shield ply assembly is an outer heat shield, the first heat shield ply assembly is formed of a multiple of segments (130A, 130B, 130C, 130D), and the second heat shield ply assembly is formed of a multiple of segments (132A, 132B). a first heat shield ply assembly defined about an axis; and a second heat shield ply assembly defined about the axis, the second heat shield ply assembly receivable at least partially over the first heat shield assembly, characterised by further comprising: a band clamp to circumferentially retain the first heat shield ply assembly and the second heat shield ply assembly, wherein the first heat shield ply assembly is an inner heat shield and the second heat shield ply assembly is an outer heat shield, the first heat shield ply assembly is formed of a multiple of segments (130A, 130B, 130C, 130D), and the second heat shield ply assembly is formed of a multiple of segments (132A, 132B).
A peptide combination, said combination consisting of a first peptide consisting of the amino acid sequence SEQ ID NO: 38 and a second peptide comprising 13 consecutive amino acid residues from an amino acid sequence having the formula: Z 1 -Z 2 -Z 3 -Z 4 -Z 5 -Z 6 -Z 7 -Z 8 -Z 9 -Z 10 -Z 11 -Z 12 -Z 13 -Z 14 -Z 15 -Z 16 -Z 17 wherein Z 1 is Asp, Z 2 is Arg, Z 3 is Pro, Z 4 is Glu or Gly, Z 5 is Gly or Arg, Z 6 is Ile, Z 7 is Glu, Z 8 is Glu, Z 9 is Glu, Z 10 is Gly, Z 11 is Gly, Z 12 is Glu or is absent, Z 13 is Arg or Gin, Z 14 is Asp or Gly, Z 15 is Arg or Lys, Z 16 is Asp or Gly and Z 17 is Arg, wherein said peptide combination is capable of inducing an antibody which can bind and stabilise the association of the C5 domain of HIV gp120 with the transmembrane domain of gp41, and wherein said peptide combination lacks amino acids N-terminal of C5 in gp120, wherein the first and second peptides are covalently linked via a Cys-Lys linker. wherein Z 1 is Asp, Z 2 is Arg, Z 3 is Pro, Z 4 is Glu or Gly, Z 5 is Gly or Arg, Z 6 is Ile, Z 7 is Glu, Z 8 is Glu, Z 9 is Glu, Z 10 is Gly, Z 11 is Gly, Z 12 is Glu or is absent, Z 13 is Arg or Gin, Z 14 is Asp or Gly, Z 15 is Arg or Lys, Z 16 is Asp or Gly and Z 17 is Arg, wherein said peptide combination is capable of inducing an antibody which can bind and stabilise the association of the C5 domain of HIV gp120 with the transmembrane domain of gp41, and wherein said peptide combination lacks amino acids N-terminal of C5 in gp120, wherein the first and second peptides are covalently linked via a Cys-Lys linker.
A combine harvester with a threshing device which operates in accordance with the tangential flow principle, as well as a separating device, wherein the threshing device comprises a threshing drum comprising a cylindrical main body which is closed in the circumferential direction and on which a plurality of support profiles which are distributed at a distance from one another in the circumferential direction are attached, which extend over substantially the width of the main body, wherein beater bars (17, 18) respectively provided with ribs (21, 22) are releasably mounted on the support profiles, wherein the ribs (21, 22) of the respective beater bars (17, 18) have an inclination to the direction of rotation of the threshing drum, characterized in that at least two beater bars (17, 18) configured with ribs (21, 22) are disposed adjacent to each other on the respective support profile, wherein the ribs (21, 22) of respective beater bars (17, 18) lying adjacent to each other are orientated in opposite senses, and in that each support profile is equipped with an identical combination and arrangement of beater bars (17, 18).
Laminated glazing comprising two sheets of glass (101,105) and at least one polymer interlayer film and a further polymer interlayer film between the two sheets of glass characterized in that a functional layer comprising light scattering particles is applied to at least one surface of the polymer interlayer film, wherein the polymer interlayer film comprises polyvinyl butyral and optionally a plasticizer W, wherein the content of plasticizer W in the polymer interlayer film before lamination is equal to or less than 5% and wherein the polymer interlayer film has a thickness of equal to or more than 10 μm to equal to or less than 250 μm before lamination and wherein the further polymer interlayer film comprises polyvinyl butyral and before lamination, at least 22 % by weight of a plasticiser.
A method of evaluating an antibody drug conjugate, wherein the ADC is suspended in whole blood, serum, plasma, or tissue of a mammal selected from a human, a cynomolgus monkey, a rat, and a mouse, comprising: a. digesting an ADC comprising at least one drug moiety linked to an antibody at a recombinantly-engineered site selected from: a cysteine amino acid residue, a selenocysteine amino acid residue, a glutamine amino acid residue, a non-naturally occurring amino acid residue, and a sugar-modified glycan residue, with IdeS protease that cleaves the ADC, to form a digested ADC composition comprising at least one peptide fragment that is not linked to the at least one drug moiety, and at least one peptide fragment that is linked to the at least one drug moiety; and, b. analyzing the digested ADC composition by at least one of RP-LC, RP-LC/MS, and LC-MS/MS to detect at least one peptide fragment that is not linked to the at least one drug moiety. a. digesting an ADC comprising at least one drug moiety linked to an antibody at a recombinantly-engineered site selected from: a cysteine amino acid residue, a selenocysteine amino acid residue, a glutamine amino acid residue, a non-naturally occurring amino acid residue, and a sugar-modified glycan residue, with IdeS protease that cleaves the ADC, to form a digested ADC composition comprising at least one peptide fragment that is not linked to the at least one drug moiety, and at least one peptide fragment that is linked to the at least one drug moiety; and, a cysteine amino acid residue, a selenocysteine amino acid residue, a glutamine amino acid residue, a non-naturally occurring amino acid residue, and a sugar-modified glycan residue, b. analyzing the digested ADC composition by at least one of RP-LC, RP-LC/MS, and LC-MS/MS to detect at least one peptide fragment that is not linked to the at least one drug moiety.
A method for measuring hydrogen-induced cracking by immersing a test specimen in a test solution containing hydrogen sulfide inside a vessel and measuring cracks initiated in the interior of the test specimen with an ultrasonic probe, wherein the test specimen and the ultrasonic probe are relatively scanned every given time to measure a position and size of cracks initiated in the interior of the test specimen with time at a state of immersing the test specimen in the test solution, characterized in that the ultrasonic probe is placed in the test solution together with the test specimen.
A tracheostomy tube including a shaft and a mounting flange towards the machine end of the shaft, the mounting flange extending radially outwardly of the tube and being provided with an opening towards each end to which means can be secured to retain the tube with the patient's neck, characterised in that the flange is of a first silicone material overmoulded on two reinforcement inserts (137, 138) at respective ones of the openings, and that the reinforcement inserts (137, 138) are of a heat-cured silicone rubber material different from the first silicone material.
A system for data routing security, the system comprising: an origination network node; a destination network node; and at least one router network node, wherein at least one of the origination network node, the destination network node, and the at least one router network node is an enabled network node; wherein the origination network node and the destination network node are connected to each other via the at least one router network node, wherein the origination network node is configured for transmitting a data packet downstream to the destination network node through the at least one router network node, wherein the data packet contains a header portion and a payload data portion, and wherein the at least one enabled network node is configured to verify at least one of the network nodes that are located upstream from the at least one enabled network node by being configured to analyze at least one of the header portion and the payload data portion of the data packet; wherein the header portion of the data packet contains data relating to all of the network nodes that the data packet has traveled through; and wherein when the at least one enabled network node is arranged to verify at least one of the network nodes, the at least one enabled network node is configured to add data to the header portion of the data packet regarding the at least one of the network nodes that was verified; wherein the header portion comprises a security signature portion; the security signature portion comprising geolocation information relating to at least one of the network nodes the data packet has traveled through. an origination network node; a destination network node; and at least one router network node, wherein at least one of the origination network node, the destination network node, and the at least one router network node is an enabled network node; wherein the origination network node and the destination network node are connected to each other via the at least one router network node, wherein the origination network node is configured for transmitting a data packet downstream to the destination network node through the at least one router network node, wherein the data packet contains a header portion and a payload data portion, and wherein the at least one enabled network node is configured to verify at least one of the network nodes that are located upstream from the at least one enabled network node by being configured to analyze at least one of the header portion and the payload data portion of the data packet; wherein the header portion of the data packet contains data relating to all of the network nodes that the data packet has traveled through; and wherein when the at least one enabled network node is arranged to verify at least one of the network nodes, the at least one enabled network node is configured to add data to the header portion of the data packet regarding the at least one of the network nodes that was verified; wherein the header portion comprises a security signature portion; the security signature portion comprising geolocation information relating to at least one of the network nodes the data packet has traveled through.
A method for dehusking cereal grain, in particular for removing the husks and/or the seed coats as well as the germ from cereal grain, in particular brewer's grain, which is firstly cleaned and fed to the malting process and is then processed on its surface, wherein the surface processing consists of shelling, wherein a plant according to claim 8 is used.