mhurhangee/ep-ind-claims huggingface dataset:
Viscoelastic preparation containing 0.05 to 5 wt.%, preferably 1 to 3 wt.%, of a modified polysaccharide ether in aqueous solution, wherein the modified polysaccharide ether has a weight-averaged molecular weight of 40,000 to 500,000 g/mol, and can be obtained by reacting polysaccharide ether(s), selected from hydroxypropyl methylcellulose (HPMC), hydroxyethyl methylcellulose (HEMC), methylcellulose, cellulose ethers with methyl groups and/or ethyl groups and/or propyl groups and mixtures thereof, with at least one modifier, characterised in that the viscoelastic preparation has a zero shear viscosity of more than 10 Pa.s, measured at 25±0.1 °C and a pseudoplasticity of more than 20 which is produced by the ratio of zero shear viscosity, measured at 25±0.1 °C, to the viscosity, measured at 25±0.1 °C, and at a shear rate of 100 s -1, and in that the modifier is a mesogenic modifier.
A module (10, 18, 28) for an underwater structure, the module being cuboid in shape and comprising a plurality of walls defining a cavity configured such that at least two walls of said plurality of walls confront one another to provide respective stack support surfaces for supporting a said module (10, 18, 28), wherein two or more walls of said plurality of walls each comprise an aperture providing a conduit through each of said two or more walls to said cavity, respective apertures of said two or more walls and said cavity configured to provide a water flow path into, through and from said cavity; wherein the respective apertures each comprise a cylindrical space extending inward from their respective exterior faces to said cavity and wherein said cavity comprises curved walls forming a central spherical cavity, the curved walls configured to provide a support arch for one or more of said plurality of walls.
A method for recognizing rejects when processing workpieces identical in structure by means of a numerically controlled workpiece processing device, comprising the following steps: a) processing a workpiece by specifying a nominal tool path for a tool of the workpiece processing device, b) controlling a working distance of the tool from the workpiece to a defined nominal distance, so that the tool is moved along the nominal tool path on a distance-controlled actual tool path during processing of the workpiece, c) checking whether the distance-controlled actual tool path deviates from the nominal tool path applicable for this workpiece by less than a predetermined tolerance value at selected contour sections of the processed workpiece that are preferably not prone to contouring errors, and d) if so, continuing with the processing of the next workpiece or, if not, outputting a message that the processed workpiece has been recognized as scrap, characterized in that in step c) the measured working distance of the tool from the workpiece is also taken into account in order to calculate a contouring error from the deviation of the distance-controlled actual tool path from the nominal tool path applicable to this workpiece in the case of contour sections of the processed workpiece that are prone to contouring errors. a) processing a workpiece by specifying a nominal tool path for a tool of the workpiece processing device, b) controlling a working distance of the tool from the workpiece to a defined nominal distance, so that the tool is moved along the nominal tool path on a distance-controlled actual tool path during processing of the workpiece, c) checking whether the distance-controlled actual tool path deviates from the nominal tool path applicable for this workpiece by less than a predetermined tolerance value at selected contour sections of the processed workpiece that are preferably not prone to contouring errors, and d) if so, continuing with the processing of the next workpiece or, if not, outputting a message that the processed workpiece has been recognized as scrap,
An aerosol-generation apparatus comprising a heater and a fluid-transfer article, the fluid-transfer article comprising a reservoir for holding an aerosol precursor and a wick arranged and configured to receive said aerosol precursor from said reservoir, the wick making contact with a heating region of said heater, wherein said heating region of said heater includes at least one electrically conductive filament arranged to generate heat on the passage of electrical current therethrough, said at least one filament having a coating of electrically insulating material thereon, and characterized by said coating having a thickness not greater than 50μm.
An apparatus for limiting fluid pressure within an inflatable portion of an inflatable device, wherein the inflatable device comprises a supply fluid path and a return fluid path individually connecting the inflatable portion to the apparatus, the apparatus comprising: a body comprising a fluid inlet port and a fluid outlet port connected by a first passage, wherein the first passage is connected to the supply fluid path at the fluid outlet port; a second passage connected to the return fluid path, wherein the first passage and the second passage are not in fluid communication within the apparatus; the apparatus comprising a valve system comprising a pressure relief valve which is located such that when the fluid pressure in the inflatable portion and the second passage exceeds a predetermined pressure, the pressure relief valve opens and excess fluid is released from the inflatable portion; characterized in that the first passage and the second passage are non-interfering or non-interacting; in that valve system further comprises a fill indicator which indicates when a first pressure is achieved and the pressure relief valve prevents over-inflation when a second pressure is achieved; and in that the pressure relief valve prevents over-inflation by not allowing the inflatable portion to reach a pressure that is at least 50% higher than the first pressure.
A compound having the general formula (Seq.-ID No.46): X 1 -X 2 -X 3 -Ser-X 4 -X 5 -X 6 -X 7 -Pro-X 8 -NH 2 wherein X1 = Ac-D-2Nal, Ac-Δ 3 Pro X2 = His, D-4Cpa, Arg, Tyr, Trp, D-4Fpa, D-4Bpa X3 = Trp, D-3Pal, D-2Nal, Ala, Phe, His X4 = Tyr, His X5 = D-Lys, D-Trp, D-3Pal, D-2Nal X6 = Trp, Leu, Arg X7 = Tyr, Leu, Arg X8 = D-Ala, D-Gly, D-Cys, D-Ser, D-Val, D-Thr, D-Pro, D-Ile, D-Leu and peptide mimetics of the following type: Compounds of SEQ ID No. 46 as defined above having protective groups at one or both ends of the mimetic, or replacement of one or more peptide bonds with non-peptide bonds. X1 = Ac-D-2Nal, Ac-Δ 3 Pro X2 = His, D-4Cpa, Arg, Tyr, Trp, D-4Fpa, D-4Bpa X3 = Trp, D-3Pal, D-2Nal, Ala, Phe, His X4 = Tyr, His X5 = D-Lys, D-Trp, D-3Pal, D-2Nal X6 = Trp, Leu, Arg X7 = Tyr, Leu, Arg X8 = D-Ala, D-Gly, D-Cys, D-Ser, D-Val, D-Thr, D-Pro, D-Ile, D-Leu Compounds of SEQ ID No. 46 as defined above having protective groups at one or both ends of the mimetic, or replacement of one or more peptide bonds with non-peptide bonds.
A method of determining a camera pose of a forward facing camera in a vehicle scene, the method including: a) capturing images of a vehicle driver's face from a driver facing camera in the driver facing camera frame of reference and images of the forward road scene from a forward facing camera in the forward facing camera frame of reference during normal operation of the vehicle when the driver is seated in the driver's seat and operating the vehicle; b) processing the images of the driver's face from the driver facing camera to derive gaze direction data in a vehicle frame of reference; c) statistically collating the gaze direction data into a frequency distribution of gaze angles; d) identifying one or more peaks in the frequency distribution and associating the one or more peaks with a corresponding one or more reference points in the images of the forward road scene from the forward facing camera to determine one or more reference gaze points of regard in the vehicle reference frame; and e) correlating the one or more reference gaze points of regard with a position of the reference points in the forward facing camera reference frame to map the gaze direction data to the images of the forward facing road scene to determine a camera pose of the forward facing camera in the vehicle frame of reference so that driver's eye gaze direction captured from the driver facing camera is projectable onto images of the forward facing camera to indicate a point of regard of the driver during vehicle operation. a) capturing images of a vehicle driver's face from a driver facing camera in the driver facing camera frame of reference and images of the forward road scene from a forward facing camera in the forward facing camera frame of reference during normal operation of the vehicle when the driver is seated in the driver's seat and operating the vehicle; b) processing the images of the driver's face from the driver facing camera to derive gaze direction data in a vehicle frame of reference; c) statistically collating the gaze direction data into a frequency distribution of gaze angles; d) identifying one or more peaks in the frequency distribution and associating the one or more peaks with a corresponding one or more reference points in the images of the forward road scene from the forward facing camera to determine one or more reference gaze points of regard in the vehicle reference frame; and e) correlating the one or more reference gaze points of regard with a position of the reference points in the forward facing camera reference frame to map the gaze direction data to the images of the forward facing road scene to determine a camera pose of the forward facing camera in the vehicle frame of reference so that driver's eye gaze direction captured from the driver facing camera is projectable onto images of the forward facing camera to indicate a point of regard of the driver during vehicle operation.
An inverter phase leg in a DC to AC converter (10, 20) comprising a high supply line (12, 22) and a low supply line (14, 24) across which a DC voltage may be provided, a high side gate controlled switch connected to the high supply line and a low side gate controlled switch connected to the low supply line, the switches connected between the high supply line (12, 22) and the low supply line (14, 24) with an output node between the high side switch and the low side switch, characterized by: an inverting driver connected to the high side gate controlled switch and having an input voltage from a control signal, an output voltage for switching the high side gate controlled switch, and a driving voltage; and a source of first DC voltage between the output node and the inverting driver's driving voltage; wherein the driving voltage is set to cause the output voltage of the inverting driver to be zero until the input voltage exceeds the first DC voltage. an inverting driver connected to the high side gate controlled switch and having an input voltage from a control signal, an output voltage for switching the high side gate controlled switch, and a driving voltage; and a source of first DC voltage between the output node and the inverting driver's driving voltage; wherein the driving voltage is set to cause the output voltage of the inverting driver to be zero until the input voltage exceeds the first DC voltage.
A glycol ether-ester selected from the group consisting of: tripropylene glycol n-butyl ether benzoate; tripropylene glycol n-pentyl ether benzoate; dipropylene glycol 2-ethylhexyl ether benzoate; dipropylene glycol phenyl ether benzoate; ethylene glycol n-hexyl ether levulinate; diethylene glycol n-hexyl ether levulinate; diethylene glycol phenyl ether levulinate; triethylene glycol n-butyl ether levulinate; dipropylene glycol phenyl ether levulinate; tripropylene glycol methyl ether levulinate; tripropylene glycol n-propyl ether levulinate; and tripropylene glycol n-butyl ether levulinate.
Sensor device for optical detection of objects and their spatial movements, comprising, a 3D camera that acquires spatial data using a time-of-flight method, the 3D camera comprising a pulse light source and a light-sensitive detection chip, wherein the pulse light source and the detection chip are arranged in a common installation space on a board and both are aligned with a detection area of the 3D camera, the detection chip having a sensitive surface and a chip package, wherein a receiving optic is arranged on the detection chip in an optics housing, wherein the optics housing has fastening means (6a, 6b, 6c) which extend along the sides of the chip housing and at least up to the board, and the optics housing has a sleeve section for compensating manufacturing tolerances, in which a lens holder is guided in an axially adjustable manner, namely perpendicularly to the sensitive surface and the underlying board, wherein adjusting means are arranged on the sleeve section and cooperate with corresponding means on the lens holder.
A method for fabricating a plasma etch-resistant film on a surface of a substrate, wherein the method comprises the step of forming a film comprising an intermediate layer of rare earth metal oxide, rare earth metal carbonate, or rare earth metal oxycarbonate or any mixture thereof on a first layer of rare earth metal oxide, wherein the rare earth metal is the same in the first layer and in the intermediate layer, and wherein the step of forming the film comprises, in a reaction space, the steps of: depositing the first layer by exposing a deposition surface to alternately repeated surface reactions of at least two precursors including a precursor for rare earth metal and a first precursor for oxygen, wherein the depositing is carried out until the thickness of the first layer is 10 - 1000 nm, such that the structure of the first layer is crystalline, and depositing the intermediate layer by exposing a deposition surface to alternately repeated surface reactions of at least two precursors including a precursor for rare earth metal and a second precursor for oxygen that is selected from a group consisting of ozone; a combination of ozone and water; a combination of ozone and oxygen; a combination of ozone and hydrogen peroxide; oxygen-containing radicals; oxygen plasma; carbon dioxide plasma; organic peroxides; organic hydroperoxides; peroxyacids; and singlet oxygen, wherein the depositing is carried out until the thickness of the intermediate layer is 0,1 - 50 nm, such that the structure of the intermediate layer is amorphous, wherein the first precursor for oxygen is different from the second precursor for oxygen, and wherein the steps of depositing the first layer and depositing the intermediate layer are carried out at a temperature of 150 - 450 °C. depositing the first layer by exposing a deposition surface to alternately repeated surface reactions of at least two precursors including a precursor for rare earth metal and a first precursor for oxygen, wherein the depositing is carried out until the thickness of the first layer is 10 - 1000 nm, such that the structure of the first layer is crystalline, and depositing the intermediate layer by exposing a deposition surface to alternately repeated surface reactions of at least two precursors including a precursor for rare earth metal and a second precursor for oxygen that is selected from a group consisting of ozone; a combination of ozone and water; a combination of ozone and oxygen; a combination of ozone and hydrogen peroxide; oxygen-containing radicals; oxygen plasma; carbon dioxide plasma; organic peroxides; organic hydroperoxides; peroxyacids; and singlet oxygen, wherein the depositing is carried out until the thickness of the intermediate layer is 0,1 - 50 nm, such that the structure of the intermediate layer is amorphous, wherein the first precursor for oxygen is different from the second precursor for oxygen, and wherein the steps of depositing the first layer and depositing the intermediate layer are carried out at a temperature of 150 - 450 °C.
A wear resistant composite, comprising: a metal substrate having a surface; a reinforcing support attached to the surface; and an inorganic curable composition comprising a silica dispersion or colloidal silica disposed over and through the reinforcing support and contacting the surface. a metal substrate having a surface; a reinforcing support attached to the surface; and an inorganic curable composition comprising a silica dispersion or colloidal silica disposed over and through the reinforcing support and contacting the surface.
Load measuring arrangement comprising a test object and a load measuring apparatus for measuring a load at the test object, wherein the load measuring apparatus has a magnetic field generating device for generating a magnetic field in a measuring region of the test object and a first and a second magnetic field capturing device (20, 22) for capturing a magnetic field parameter which changes on account of the load, wherein the measuring region has a layer made of a ferromagnetic amorphous or nanocrystalline metal with a maximum particle size less than 1 μm, characterized in that the test object includes a body that is formed from a non-ferromagnetic material and which has a coating made of the ferromagnetic amorphous or nanocrystalline metal at least in the measuring region and wherein the ferromagnetic amorphous or nanocrystalline metal is electroless nickel or includes electroless nickel with a phosphorus content of 2 to 12% by weight, preferably 5 to 9% by weight.
Method for treating basic oxygen furnace slag comprising steps of: a) cooling basic oxygen furnace slag from an initial temperature T i of between 1500 and 1600° to a plateau temperature T p of between 1200 and 1400°C, on the understanding that: - the mean cooling rate from the initial temperature T i to the plateau temperature T p is equal to or lower than 10°C per minute; and - the maximum cooling rate from the initial temperature T i to the plateau temperature T p is less than 20°C per minute; then c) cooling the basic oxygen furnace slag from the plateau temperature T p to a final temperature T f lower than 1200°C; whereby lime silicate phases are formed having a mean size larger than 30 μm and lime ferrite phases; d) milling the basic oxygen furnace slag obtained after cooling; e) separating the lime silicate phases and lime ferrite phases. a) cooling basic oxygen furnace slag from an initial temperature T i of between 1500 and 1600° to a plateau temperature T p of between 1200 and 1400°C, on the understanding that: - the mean cooling rate from the initial temperature T i to the plateau temperature T p is equal to or lower than 10°C per minute; and - the maximum cooling rate from the initial temperature T i to the plateau temperature T p is less than 20°C per minute; then - the mean cooling rate from the initial temperature T i to the plateau temperature T p is equal to or lower than 10°C per minute; and - the maximum cooling rate from the initial temperature T i to the plateau temperature T p is less than 20°C per minute; then c) cooling the basic oxygen furnace slag from the plateau temperature T p to a final temperature T f lower than 1200°C; whereby lime silicate phases are formed having a mean size larger than 30 μm and lime ferrite phases; d) milling the basic oxygen furnace slag obtained after cooling; e) separating the lime silicate phases and lime ferrite phases.
A drive system in the form of a torque motor forming a high-pole electric rotary drive comprising a stator and a rotor, and exciter coils arranged on the stator and permanent magnets arranged on the rotor, which are radially opposite each other across an air gap, wherein by electrical control of the exciter coils the rotor is caused to rotate relative to the stator by means of magnetic fields extending over the air gap and with proper operational arrangement/orientation of the drive system and with an internal rotor the vertically lower half of the stator with respect to the direction of the force of gravity has a smaller number of exciter coils than the vertically upper half and with an internal stator the vertically upper half of the stator has a smaller number of exciter coils than the vertically lower half, characterised in that the configuration of the exciter coils, the air gap, the magnitude of the magnetic field strength and further features which influence the magnetic force acting linearly on the rotor are matched in such a way that the force of gravity applied to the rotor is thereby completely or at least largely compensated, with an internal rotor the vertically upper half of the stator is completely equipped with exciter coils and the vertically lower half of the stator has no exciter coils and with an internal stator the vertically lower half of the stator is completely equipped with exciter coils and the vertically upper half of the stator has no exciter coils.
Clamping fitting for telescopic poles (2, 3) comprising a tubular housing surrounding the telescopic parts (5, 6) of the poles (2, 3) and into which the end of the outer pole is permanently fixed, a pair of parallel extending flanges (9, 10) arranged at the side of the housing, in between which flanges (9, 10) is pivotally arranged the inner eccentric end of a lever arm, having axis of pivot extending transverse to the axis of the poles (2, 3), an opening being arranged in the periphery of the tubular housing between the pair of flanges (9, 10), characterised in that a bridge-formed clamp of plate material having two legs (20, 21) and a base part there between is arranged in the opening, the free ends of the legs (20, 21) having rims (23, 24) extending transversely to the axis of the poles (2, 3) and being adapted to come into engagement with the outer surface of the inner pole, when the base part is engaged by the inner eccentric end of the lever arm.
A combined anticancer agent for simultaneous, separate or successive administration in cancer therapy, comprising the following pharmaceutical preparations (a) and (b): (a) a pharmaceutical preparation comprising S-[4-(1-aminocyclobutyl)phenyl]-9-phenyl[1,2,4]triazolo[3,4- ƒ]-1,6-naphthyridin-3 -one or a pharmaceutically acceptable salt thereof, together with a pharmaceutically acceptable carrier or diluent, and (b) a pharmaceutical preparation comprising, together with a pharmaceutically acceptable carrier or diluent, at least one anticancer agent selected from the group consisting of anticancer antimetabolites, anticancer antibiotics, plant-derived anticancer agents, anticancer platinum-coordinated complex compounds, anticancer camptothecin derivatives and anticancer tyrosine kinase inhibitors, or a pharmaceutically acceptable salt thereof, wherein the anticancer antimetabolites are 5-fluorouracil and gemcitabine; the anticancer antibiotic is doxorubicin; the plant-derived anticancer agents are docetaxel and paclitaxel; the anticancer platinum-coordinatedcomplex compounds are cisplatin and carboplatin; the anticancer camptothecin derivative is camptothecin; and the anticancer tyrosine kinase inhibitors are lapatinib and erlotinib. (a) a pharmaceutical preparation comprising S-[4-(1-aminocyclobutyl)phenyl]-9-phenyl[1,2,4]triazolo[3,4- ƒ]-1,6-naphthyridin-3 -one or a pharmaceutically acceptable salt thereof, together with a pharmaceutically acceptable carrier or diluent, and (b) a pharmaceutical preparation comprising, together with a pharmaceutically acceptable carrier or diluent, at least one anticancer agent selected from the group consisting of anticancer antimetabolites, anticancer antibiotics, plant-derived anticancer agents, anticancer platinum-coordinated complex compounds, anticancer camptothecin derivatives and anticancer tyrosine kinase inhibitors, or a pharmaceutically acceptable salt thereof, wherein