mhurhangee/ep-ind-claims huggingface dataset:
An ink comprising a pigment, a water-soluble organic solvent, and a surfactant represented by the following formula: wherein R 1 to R 4 each independently represent an alkyl group having 1 to 3 carbon atoms, x and y each independently represent a numerical value of from 1 to 5, and m + n represents a numerical value of from 0 to 30, wherein the ink has a viscosity of 5 mPa·s or more at 25°C; a static surface tension of the ink as measured at 25°C using a Wilhelmy method is from 27.1 mN/m to 35.0 mN/m; and a dynamic surface tension of the ink as measured at 25°C using a maximum bubble pressure method is from 30.5 mN/m to 37.0 mN/m when a bubble life time is 150 msec. wherein R 1 to R 4 each independently represent an alkyl group having 1 to 3 carbon atoms, x and y each independently represent a numerical value of from 1 to 5, and m + n represents a numerical value of from 0 to 30, wherein the ink has a viscosity of 5 mPa·s or more at 25°C; a static surface tension of the ink as measured at 25°C using a Wilhelmy method is from 27.1 mN/m to 35.0 mN/m; and a dynamic surface tension of the ink as measured at 25°C using a maximum bubble pressure method is from 30.5 mN/m to 37.0 mN/m when a bubble life time is 150 msec.
A compound consisting of an aminotriol of formula I, II, or III, wherein R comprises a biologically active molecule, and L 1, L 2, and L 3 independently for each occurrence comprise a ligand selected from the group consisting of a carbohydrate, a polypeptide, or a lipophile; a pharmaceutically acceptable salt thereof; or a pharmaceutical composition thereof.
An insufflator for minimally invasive surgery, comprising a) a gas port for a gas cylinder or domestic gas, b) a first pressure and flow regulation unit equipped with a proportional valve and a pressure sensor, c) a supply line (4, 6) with a first filter and a connection to a first trocar, d) a second trocar with a tube and a second filter, connected to a suction device with adjustable suction power, e) an electronic regulation unit, characterized by another line (19, 17) in the insufflator, which branches off between the gas supply and the first pressure and flow regulation unit and leads via a second pressure and flow regulation unit equipped with a proportional valve and a pressure sensor, to the suction line between the second filter and the suction device, so that via the tube and the second trocar an additional gas supply to the patient is enabled, optionally between the second filter and the suction device a shutoff valve being arranged. a) a gas port for a gas cylinder or domestic gas, b) a first pressure and flow regulation unit equipped with a proportional valve and a pressure sensor, c) a supply line (4, 6) with a first filter and a connection to a first trocar, d) a second trocar with a tube and a second filter, connected to a suction device with adjustable suction power, e) an electronic regulation unit,
Method for making building blocks, in particular perforated bricks, which have a substantially cubic body that comprises at least two voids (8, 9) which have a length (a, c) and a width (b) and which are separated from each other by webs (11, 12) and which serve to receive, at least partially, an insulating material, wherein said substantially cubic body is produced from a starting material under formation of said voids (8, 9), wherein molded bodies from insulating material are inserted into all of the voids (8, 9), characterized in that said molded bodies are made from a material which is compressible at least in the direction of surfaces arranged oppositely to each other, and have a volume larger than the volume of the voids (8, 9) and preferably have a width and/or length greater than that of the voids (8, 9) so that said molded bodies are frictionally held in said voids (8, 9), wherein said molded bodies are made from mineral fibers bound by a binder, in particular from rock, glass or slag fibers, and have a fiber orientation parallel to the longitudinal axis of the voids (8, 9).
Process for obtaining a fabric with the appearance of leather, imitation leather, using a base fabric on which a resin is applied wherein the resin applied on the base fabric comprises acrylic resins with inorganic fillers as a base, and additionally melamine resins, silicone antifoam, polyethylene glycol, urea and synthetic acrylic thickeners, in the following proportions: the acrylic resin with inorganic fillers is present in a percentage of between 80 and 85%, the melamine resins as fixative are present in a percentage of between 2 and 4%, the silicone antifoam is present in a percentage of between 0.3 and 0.7%, the polyethylene glycol is present in a percentage of between 4 and 6%, the urea is present in a percentage of between 0.9 and 1.1 % and the synthetic acrylic thickeners are present in a percentage of between 1 and 1.5% to achieve a viscosity of between 10,000 and 15,000 cP.
Bodies which are coated with hard material and have a multilayer layer system containing a bonding layer composed of TiN, Ti(C,N) or TiC applied to the body and at least one single-phase or multiphase Ti 1-x Al x N hard material layer, characterized by a phase gradient layer which is present between the bonding layer and the hard material layer and on its side facing the bonding layer consists of a TiN/h-AlN phase mixture and in the direction to the Ti 1-x Al x N hard material layer(s) has an increasing phase content of fcc-TiAlN with a proportion of > 50% and, associated therewith, a simultaneous decrease in the phase contents of TiN and h-AlN with increasing layer thickness.
Genipin for use in a therapeutic method of inducing cross-linking in a native tissue having naturally-occurring collagen crosslinks within a living human body by contacting said tissue with a concentration of genipin of from 40 mM up to a concentration such that there are 2400 micromoles of genipin in a dose and any combination of the following in a composition of pH 8.0-10: (a) 25-500 mM phosphate ions; (b) 25-250 mM of a buffer; (c) a surfactant; and/or (d) a water-miscible co-solvent. (a) 25-500 mM phosphate ions; (b) 25-250 mM of a buffer; (c) a surfactant; and/or (d) a water-miscible co-solvent.
Transmission structure for an, in particular, serial/parallel hybrid vehicle having an internal combustion engine, a first, in particular generator-type, electric machine, and a second, in particular motor-type, electric machine, wherein a first electric machine shaft (W EM1) which is assigned to the first electric machine can be driven via a first gearwheel set by a driveshaft (W VKM) which can be driven by the internal combustion engine, and wherein a traction drive gearwheel (Z D) of a differential gear of the vehicle can be driven via a second gearwheel set by a second electric machine shaft (W EM2) which is assigned to the second electric machine, wherein the first gearwheel set has a ring gear (Z H) with an internal toothing arrangement (Z HI) and a spur gear (Z EM1) which engages in the internal toothing arrangement (Z HI) of the ring gear (Z H), wherein the driveshaft (W VKM) is connected in a rotationally effective fashion to the ring gear (Z H), and the spur gear (Z EM1) is connected in a rotationally effective fashion to the first electric machine shaft (W EM1), wherein the first electric machine shaft (W EM1) and the second electric machine shaft (W EM2) are arranged coaxially and concentrically with respect to one another, in particular wherein the first electric machine shaft (W EM1) is embodied as an internal shaft, and the second electric machine shaft (W EM2) is embodied as a hollow shaft, and wherein the driveshaft (W VKM) is arranged offset in parallel with respect to the first and second electric machine shafts (W EM1, W EM2), characterized in that the driveshaft (W VKM) can be coupled or connected effectively in terms of rotation to the traction drive gearwheel (Z D) of the differential gear via a third gearwheel set, and in that the third gearwheel set comprises an external toothing arrangement (Z HA), wherein the driveshaft (W VKM) is connected effectively in terms of rotation to the external toothing arrangement (Z HA), in that the external toothing arrangement (Z HA) is arranged on the ring gear (Z H), and in that axis misalignment between the internal-combustion-machine driveshaft (W VKM) and the electric machine shafts (W EM1, W EM2) is implemented in such a way that the electric machines (EM1 and EM2) are arranged towards the bottom and/or towards the front, specifically in such a way that the electric machine shafts (W EM1 and W EM2) are located further away from a traction driveshaft (W D) than the internal-combustion-machine driveshaft (W VKM).
A pneumatic tire comprising a sealant layer located inward of an inner liner in a tire radial direction, characterized in that particles having a shape factor F of 5.00 to 1.00 (F = L/E, L represents a maximum dimension of the particles, E represents a minimum dimension of the particles) are provided on an inner surface of the sealant layer in the tire radial direction, and wherein the maximum dimension L of the particles is 1.0 mm to 6.0 mm and the particles are present on the inner surface of the sealant layer in the tire radial direction at a density of 1 particle/cm 2 to 120 particles/cm 2.
A three-dimensional measurement apparatus comprising: a light projecting unit configured to project, onto a target, a pattern in which data is encoded with a two-dimensional structure; an image capturing unit configured to capture an image of the target onto which the pattern is projected; and a calculation unit configured to extract feature points of the pattern and to calculate positions of a three-dimensional point group expressing a three-dimensional shape of the target based on positions of the feature points in the image and the data that is decoded, wherein the pattern includes a plurality of unit patterns of minimum units that each expresses at least two bits, include the feature points, and are used in order to calculate the positions of the three-dimensional point group, the unit patterns each includes a first region and a second region that is distinguished from the first region and has an area that is larger than an area of the first region, and an area ratio obtained by dividing the area of the first region by the area of the second region is at least 0.3 and not more than 0.9, wherein the three-dimensional measurement apparatus is characterized in further comprising: a setting unit configured to set a range of the area ratio of the pattern projected by the light projecting unit, in accordance with a number of pixels of a short side of the unit pattern on the image. a light projecting unit configured to project, onto a target, a pattern in which data is encoded with a two-dimensional structure; an image capturing unit configured to capture an image of the target onto which the pattern is projected; and a calculation unit configured to extract feature points of the pattern and to calculate positions of a three-dimensional point group expressing a three-dimensional shape of the target based on positions of the feature points in the image and the data that is decoded, wherein the pattern includes a plurality of unit patterns of minimum units that each expresses at least two bits, include the feature points, and are used in order to calculate the positions of the three-dimensional point group, the unit patterns each includes a first region and a second region that is distinguished from the first region and has an area that is larger than an area of the first region, and an area ratio obtained by dividing the area of the first region by the area of the second region is at least 0.3 and not more than 0.9, wherein the three-dimensional measurement apparatus is characterized in further comprising: a setting unit configured to set a range of the area ratio of the pattern projected by the light projecting unit, in accordance with a number of pixels of a short side of the unit pattern on the image.
A process for preparing a compound of formula (Ia) or (Ib): wherein R 1 is selected from the group consisting of hydrogen atom; C 1-6 alkyl optionally substituted by hydroxy, C 1-6 alkoxy or amino; C 5-10 aryl optionally substituted by hydroxy, C 1-6 alkoxy or amino; 5- to 10-membered saturated or unsaturated heterocycle optionally substituted by hydroxy, C 1-6 alkoxy or amino; CHO; CONH 2; C 1-6 alkylcarbonyl optionally substituted by hydroxy, C 1-6 alkoxy or amino; and COC 5-10 aryl optionally substituted by hydroxy, C 1-6 alkoxy or amino; W is O, S or NR 2; R 2 is selected from the group consisting of hydrogen atom; C 1-6 alkyl optionally substituted by nitro, sulfo, cyano, acetyl or C 5-10 aryl; COC 1-6 alkyl; and COC 5-10 aryl optionally substituted by nitro, sulfo, cyano or acetyl, which comprises Step (a) in which a compound of formula: wherein R 1 is the same as defined above, and a compound of formula or: wherein R 2 is the same as defined above; R 3 is selected from the group consisting of hydrogen atom; C 1-6 alkyl optionally substituted by nitro, sulfo, cyano, acetyl or C 5-10 aryl; COC 1-6 alkyl; and COC 5-10 aryl optionally substituted by nitro, sulfo, cyano or acetyl; X is a halogen atom selected from the group consisting of chlorine, bromine and iodine; or OSO 2 CF 3, are reacted in the presence of a base, a copper catalyst and a palladium catalyst in an aprotic polar solvent.
A controller for mitigating on-board diagnostic, OBD, faults generated by an OBD system of an internal combustion engine, ICE, system having a selective catalytic reduction system with a diesel exhaust fluid, DEF, decomposition tube, wherein the controller comprises: a fault mitigation module configured to monitor at least one OBD signal of the OBD system and issue a request for regenerating the DEF decomposition tube when a value of the at least one OBD signal reaches a predetermined regeneration threshold corresponding with the at least one OBD signal, the regeneration threshold being reachable prior to an OBD fault threshold corresponding with the at least one OBD signal; and a regeneration module configured to regenerate the DEF decomposition tube according to the issued request; characterized in that the at least one OBD signal comprises at least one of a first OBD signal corresponding with a NOx conversion efficiency of the selective catalytic reduction system and a second OBD signal corresponding with a particulate matter filter outlet high pressure, the second OBD signal representing an amount of time that a determined DPF outlet pressure is above a pressure threshold. a fault mitigation module configured to monitor at least one OBD signal of the OBD system and issue a request for regenerating the DEF decomposition tube when a value of the at least one OBD signal reaches a predetermined regeneration threshold corresponding with the at least one OBD signal, the regeneration threshold being reachable prior to an OBD fault threshold corresponding with the at least one OBD signal; and a regeneration module configured to regenerate the DEF decomposition tube according to the issued request; characterized in that the at least one OBD signal comprises at least one of a first OBD signal corresponding with a NOx conversion efficiency of the selective catalytic reduction system and a second OBD signal corresponding with a particulate matter filter outlet high pressure, the second OBD signal representing an amount of time that a determined DPF outlet pressure is above a pressure threshold.
An external hot source engine comprising: - at least one cylinder, - a piston moving back and forth in the cylinder, - a cylinder head defining, with the piston and the cylinder, a working chamber for a working gas, - a distribution mounted in the cylinder head and selectively communicating the working chamber with the following resources: • a working gas intake, • a cold end of a heat exchanger, • a hot end of the heat exchanger, • an exhaust, characterized in that the distribution comprises at least one rotary slide valve (20, 30) mounted in rotation in the cylinder head and including internal passages opening through the sidewall thereof by at least two holes (21, 22, 31, 32) for at least one same passage, said holes (21, 22, 31, 32) being adapted for simultaneously communicating with the working chamber, by at least one opening made in the cylinder head, and in that the internal passages lead to the working gas between the working chamber and the resources. - at least one cylinder, - a piston moving back and forth in the cylinder, - a cylinder head defining, with the piston and the cylinder, a working chamber for a working gas, - a distribution mounted in the cylinder head and selectively communicating the working chamber with the following resources: • a working gas intake, • a cold end of a heat exchanger, • a hot end of the heat exchanger, • an exhaust, • a working gas intake, • a cold end of a heat exchanger, • a hot end of the heat exchanger, • an exhaust, characterized in that the distribution comprises at least one rotary slide valve (20, 30) mounted in rotation in the cylinder head and including internal passages opening through the sidewall thereof by at least two holes (21, 22, 31, 32) for at least one same passage, said holes (21, 22, 31, 32) being adapted for simultaneously communicating with the working chamber, by at least one opening made in the cylinder head, and in that the internal passages lead to the working gas between the working chamber and the resources.
An isolated nucleic acid molecule consisting of a nucleotide sequence, or a complement thereof, as set forth in: 5'-GCG CCC GGC GGG GTC AAC TCC AT-3' (SEQ ID NO:1); 5'-AGC CAA GTT AAC ACT GCA AGG-3' (SEQ ID NO:2); or 5'- TTA GCA TGG AGC TGT AGG AGT CTA AAT TGG GG-3'(SEQ ID NO:3). 5'-GCG CCC GGC GGG GTC AAC TCC AT-3' (SEQ ID NO:1); 5'-AGC CAA GTT AAC ACT GCA AGG-3' (SEQ ID NO:2); or 5'- TTA GCA TGG AGC TGT AGG AGT CTA AAT TGG GG-3'(SEQ ID NO:3).
Dual power supply system with a first system terminal, a second system terminal, and a third system terminal, comprising a first battery cell stack interconnected between a first stack node and a second stack node and providing a first operation voltage; a second battery cell stack interconnected between the second stack node and a third stack node and providing a second operation voltage; and a DC/DC converter with a first converter node, a second converter node and a third converter node and configured for converting an input voltage between the second converter node and the first converter node to an output voltage between the second converter node and the third converter node and for converting an input voltage between the second converter node and third converter node to an output voltage between the second converter node and the first converter node, wherein each of the system terminals (101,102,103) is configured for externally and electrically connecting the dual power supply system, wherein each of the first to third system terminal (101,102,103) is connected to the respective first to third stack node (11,12,13) via a respective first conductor and to the respective first to third converter node (21,22,23) via a respective second conductor, that is different from the first conductor, and wherein a first blocking element configured for continuously or selectively blocking a current from the first system terminal to the first stack node is disposed in the respective first conductor.
A mobile terminal apparatus comprising: a downlink signal receiving section configured to receive a downlink signal including precoding information; an assigning section configured to separate an uplink data signal and an uplink L1/L2 control signal to assign to different radio resources; and a transmitting section (101, 102, 103a, 103b, 104, 105, 106, 107,) configured to MIMO-transmit a signal of each transmission layer of a plurality of transmission layers based on the precoding information, wherein the signal of each transmission layer includes the uplink L1/L2 control signal, wherein the uplink L1/L2 control signal is same in each transmission layer of the plurality of transmission layers. a downlink signal receiving section configured to receive a downlink signal including precoding information; an assigning section configured to separate an uplink data signal and an uplink L1/L2 control signal to assign to different radio resources; and a transmitting section (101, 102, 103a, 103b, 104, 105, 106, 107,) configured to MIMO-transmit a signal of each transmission layer of a plurality of transmission layers based on the precoding information, wherein the signal of each transmission layer includes the uplink L1/L2 control signal, wherein the uplink L1/L2 control signal is same in each transmission layer of the plurality of transmission layers.
Wastewater treatment assembly for the efficient purification of partial wastewater streams - polluted to different degrees - (20, 21, 22, 23, 24), in particular of industrial effluents, characterised by the following components: - an electrodialysis unit - an emergency reservoir, - a buffer tank, wherein - the buffer tank is designed indirectly reachable via the electrodialysis unit and directly reachable by partial wastewater streams (23, 24) and that - the buffer tank is designed indirectly reachable via the emergency reservoir and directly reachable by the partial wastewater streams (20, 21), and that - after the buffer tank a first flotation vessel, an anaerobic reactor and an SBR unit are connected in series before the outflow. - an electrodialysis unit - an emergency reservoir, - a buffer tank, wherein - the buffer tank is designed indirectly reachable via the electrodialysis unit and directly reachable by partial wastewater streams (23, 24) and that - the buffer tank is designed indirectly reachable via the emergency reservoir and directly reachable by the partial wastewater streams (20, 21), and that - after the buffer tank a first flotation vessel, an anaerobic reactor and an SBR unit are connected in series before the outflow.