mhurhangee/ep-ind-claims huggingface dataset:
Sealing system, comprising - a mouth coating attached to a surface of a mouth of an open glass vessel, in particular an opal glass vessel, for forming an adhesion substrate for a sealing film and - a multilayered sealing film having a lower layer which in the sealed state is in direct contact with the mouth coating, characterized in that the lower layer is made of a plastics material, in that the coating agent comprises at least one disperse substance in such a way that the disperse fraction of the surface energy of the coating agent is substantially equal to the disperse fraction of the surface energy of the lower layer of the sealing layer and in that the at least one disperse substance is a macrocyclic compound having an alternating nitrogencarbon ring structure. - a mouth coating attached to a surface of a mouth of an open glass vessel, in particular an opal glass vessel, for forming an adhesion substrate for a sealing film and - a multilayered sealing film having a lower layer which in the sealed state is in direct contact with the mouth coating,
Crystal form I ofN-(4-((3-chloro-4-fluorophenyl)amino)-7-((7-methyl-7-azaspiro[3.5]nonan-2-yl)methoxy)quinazolin-6-yl)acrylamide represented by Formula, wherein the Crystal form I exhibits an X-ray powder diffraction pattern having characteristic peaks at the 2 θ positions of 6.7±0.2°, 7.9±0.2°, 8.6±0.2°, 12.0±0.2°, 13.9±0.2°, 15.9±0.2°, 17.3±0.2°, 18.3±0.2°, 18.7±0.2°, 21.0±0.2°, and 23.0±0.2°, as determined by using Cu-Ka radiation,
A computer-implemented method of quantizing a floating point machine learning network to obtain a fixed point machine learning network using a quantizer, comprising: determining quantizer parameters for quantizing values of the floating point machine learning network based at least in part on at least one moment of an input distribution of the floating point machine learning network to obtain corresponding values of the fixed point machine learning network, in which the at least one moment of the input distribution of the floating point machine learning network comprises a mean of the input distribution; characterised in that the determining comprises modifying weight and activation value calculation to create a distribution with a modified means value of zero thereby absorbing the mean value μ before the modification into a network bias of the machine learning network by: shifting activation values to create a zero-mean distribution for each layer of the fixed point machine learning network; and shifting a coordinate of any non-linear function applied to a shifted activation value by an amount corresponding to the shifted activation value. determining quantizer parameters for quantizing values of the floating point machine learning network based at least in part on at least one moment of an input distribution of the floating point machine learning network to obtain corresponding values of the fixed point machine learning network, in which the at least one moment of the input distribution of the floating point machine learning network comprises a mean of the input distribution; characterised in that the determining comprises modifying weight and activation value calculation to create a distribution with a modified means value of zero thereby absorbing the mean value μ before the modification into a network bias of the machine learning network by: shifting activation values to create a zero-mean distribution for each layer of the fixed point machine learning network; and shifting a coordinate of any non-linear function applied to a shifted activation value by an amount corresponding to the shifted activation value. shifting activation values to create a zero-mean distribution for each layer of the fixed point machine learning network; and shifting a coordinate of any non-linear function applied to a shifted activation value by an amount corresponding to the shifted activation value.
A package of calibration material for calibrating a medical testing machine performing liquid chromatography, the package of calibration material comprising: two different materials, at least one of which is a calibration material; a respective container (401, 402, 403) for each of the materials, the containers (401, 402, 403) being connected together into a monolithic unit and maintaining separation between the materials before use of the calibration package; and a machine-readable indicator on the outside of the package, wherein the machine-readable indicator indicates that the package is for calibration of the medical testing machine and wherein the machine-readable indicator is configured for automatically initiating a calibration sequence with the medical testing machine; wherein one of the materials is a conditioning fluid configured for preparing a column for performing liquid chromatography comprised in the medical testing machine to run a test. two different materials, at least one of which is a calibration material; a respective container (401, 402, 403) for each of the materials, the containers (401, 402, 403) being connected together into a monolithic unit and maintaining separation between the materials before use of the calibration package; and a machine-readable indicator on the outside of the package, wherein the machine-readable indicator indicates that the package is for calibration of the medical testing machine and wherein the machine-readable indicator is configured for automatically initiating a calibration sequence with the medical testing machine; wherein one of the materials is a conditioning fluid configured for preparing a column for performing liquid chromatography comprised in the medical testing machine to run a test.
A method of forming a macroinitiator polymer by a single electron transfer living radical polymerization comprising the steps of: a) providing a reaction mixture comprising a plurality of acrylate monomers, a polymerizable photoinitiator, a halogen terminated initiator, and a ligand in a solvent; b) purging the reaction mixture with nitrogen; and c) adding to the reaction mixture a solid copper hydrazine-activated catalyst and polymerizing the reaction mixture in the presence of the catalyst under a positive pressure of nitrogen to produce a macroinitiator polymer having a molecular weight (Mn), determined by gel permeation chromatography, of from 55,000 to 75,000 grams/mole, a polydispersity index of 1.2 to 1.8, and a glass transition temperature of less than 20° C, determined by differential scanning calorimetry. a) providing a reaction mixture comprising a plurality of acrylate monomers, a polymerizable photoinitiator, a halogen terminated initiator, and a ligand in a solvent; b) purging the reaction mixture with nitrogen; and c) adding to the reaction mixture a solid copper hydrazine-activated catalyst and polymerizing the reaction mixture in the presence of the catalyst under a positive pressure of nitrogen to produce a macroinitiator polymer having a molecular weight (Mn), determined by gel permeation chromatography, of from 55,000 to 75,000 grams/mole, a polydispersity index of 1.2 to 1.8, and a glass transition temperature of less than 20° C, determined by differential scanning calorimetry.
An organic light emitting device, comprising: an anode, a cathode, an emissive layer disposed between the anode and the cathode, the emissive layer including a host and a phosphorescent emissive dopant having a peak emissive wavelength less than 500 nm and comprising a cyclometallated N,C-donor imidazophenanthridine ligand the device being obtainable by a process wherein the phosphorescent emissive dopant is deposited from a source that has a purity in excess of 99.5% as determined by high pressure liquid chromatography, the source further having a combined concentration of halide and metal impurities below 100 ppm, the phosphorescent emissive dopant leaves a residue corresponding to less than 5 wt% of the original charge in the sublimation crucible and the phosphorescent emissive dopant has a sublimation temperature less than 350°C and is deposited via sublimation, characterised in that the cyclometallated N,C-donor imidazophenanthridine ligand comprises at least one 2,2,2- trialkylethyl substituent. an anode, a cathode, an emissive layer disposed between the anode and the cathode, the emissive layer including a host and a phosphorescent emissive dopant having a peak emissive wavelength less than 500 nm and comprising a cyclometallated N,C-donor imidazophenanthridine ligand the device being obtainable by a process wherein the phosphorescent emissive dopant is deposited from a source that has a purity in excess of 99.5% as determined by high pressure liquid chromatography, the source further having a combined concentration of halide and metal impurities below 100 ppm, the phosphorescent emissive dopant leaves a residue corresponding to less than 5 wt% of the original charge in the sublimation crucible and the phosphorescent emissive dopant has a sublimation temperature less than 350°C and is deposited via sublimation, characterised in that the cyclometallated N,C-donor imidazophenanthridine ligand comprises at least one 2,2,2- trialkylethyl substituent.
Method for protecting a compressor wheel, which has blades and a compressor wheel journal and which is composed of a light metal, of an exhaust-gas turbocharger against damage, having the following steps: - melting the surface of the leading edges of the blades and a part of the flanks, adjacent to the surface of the leading edges, of the blades by means of a laser beam, - supplying a process gas which bonds with the melt, - hardening the surface of the leading edges and the surface of the part of the flanks, adjacent to the surface of the leading edges, of the blades by cooling of the process gas that has bonded with the melt, - wherein that part of the flanks, adjacent to the surface of the leading edges, of the blades which is melted comprises at most half of the total area of a flank. - melting the surface of the leading edges of the blades and a part of the flanks, adjacent to the surface of the leading edges, of the blades by means of a laser beam, - supplying a process gas which bonds with the melt, - hardening the surface of the leading edges and the surface of the part of the flanks, adjacent to the surface of the leading edges, of the blades by cooling of the process gas that has bonded with the melt, - wherein that part of the flanks, adjacent to the surface of the leading edges, of the blades which is melted comprises at most half of the total area of a flank.
A hydrodynamic fluid separation device comprising: a plurality of layers in a stack, each layer having defined therein a flow channel, an inlet to the flow channel, at least two outlets (44, 46) for the flow channel, and apertures defined in the layer, each layer having a primary seal and a secondary seal following a contour of the flow channel around the layer to provide sealing to the flow channel during operation; a first plate positioned on a first end of the stack, the first plate having apertures; a second plate positioned on a second end of the stack, the second plate having apertures; and, connectors received in aligned apertures of the stack, the first plate and the second plate to compress together the first plate, stack and second plate. a plurality of layers in a stack, each layer having defined therein a flow channel, an inlet to the flow channel, at least two outlets (44, 46) for the flow channel, and apertures defined in the layer, each layer having a primary seal and a secondary seal following a contour of the flow channel around the layer to provide sealing to the flow channel during operation; a first plate positioned on a first end of the stack, the first plate having apertures; a second plate positioned on a second end of the stack, the second plate having apertures; and, connectors received in aligned apertures of the stack, the first plate and the second plate to compress together the first plate, stack and second plate.
An optical device, comprising: a) a light-transmitting substrate having at least two major surfaces (40, 42) parallel to each other and edges and at least one partially reflecting surface located in said light-transmitting substrate which is disposed at an angle to said major surfaces (40, 42) of said light-transmitting substrate; b) a display light source emitting collimated light waves located in a given field-of-view, and c) optical means for coupling collimated light waves from said display light source into said light-transmitting substrate by total internal reflection, said optical means being disposed at an angle to said major surfaces (40, 42) of said light-transmitting substrate; characterized in that points on a boundary line between an edge of said optical means and a first one of said major surfaces of said light-transmitting substrate are illuminated by two different light rays (38a, 38b) from one of said collimated light waves from said display light source that enter said light-transmitting substrate in two different locations, wherein one light ray illuminates directly the boundary line and the other light ray is first reflected by the optical means and then by a second one of the major surfaces of the light-transmitting substrate before illuminating the boundary line. a) a light-transmitting substrate having at least two major surfaces (40, 42) parallel to each other and edges and at least one partially reflecting surface located in said light-transmitting substrate which is disposed at an angle to said major surfaces (40, 42) of said light-transmitting substrate; b) a display light source emitting collimated light waves located in a given field-of-view, and c) optical means for coupling collimated light waves from said display light source into said light-transmitting substrate by total internal reflection, said optical means being disposed at an angle to said major surfaces (40, 42) of said light-transmitting substrate;
A multi-layer pad adapted to be used in determining an analyte concentration, the pad comprising: a first layer including an enzyme and a polymer, the enzyme being adapted to assist in determining the analyte concentration; and a second layer being attached to the first layer, the second layer being made of a skin-conforming material is a cross-linked hydrophilic polymer, the second layer being cross-linked to the first layer, characterised in that the first layer is a fabric, porous membrane, or paper material. a first layer including an enzyme and a polymer, the enzyme being adapted to assist in determining the analyte concentration; and a second layer being attached to the first layer, the second layer being made of a skin-conforming material is a cross-linked hydrophilic polymer, the second layer being cross-linked to the first layer, characterised in that the first layer is a fabric, porous membrane, or paper material.
A system supplying combustion engines with fuel, alternately with petrol / diesel oil or LPG, with a high pressure pump supplying fuel to an engine, a low pressure pump supplying selected fuel to the high pressure pump, with a fuel type switch placed ahead of the low pressure pump, with valves (7, 11, 12, 13, 14) controlling the operation of the fuel change system from petrol /diesel oil to LPG, wherein in the LPG tank in a sealed glass isolated from the LPG tank the low pressure pump is placed, which at the input is equipped with an electrovalve as a fuel change switch from petrol / diesel oil to LPG, to one input of the electrovalve there is supplied petrol / diesel oil through a solenoid valve, and to the second input LPG is supplied, wherein the low pressure branch at the outlet of the high pressure pump feeding the engine is connected to a manifold of a small and big fuel circuit, in which a small circuit valve is connected to the inlet of the low pressure pump in the sealed glass and a big circuit valve is connected to the LPG tank, where the petrol / diesel oil is supplied to the inlet of the sealed glass via the electrovalve, wherein the sealed glass is placed in the LPG tank via a cup, the sealed glass being an upper plate attached to a main plate of the cup (6, and wherein on the main plate of the cup on the LPG return line a non-return valve is mounted to block gas outflow from the LPG tank and on the LPG supply line to the low pressure pump a manual shut-off valve is installed.
A method for resource configuration, being applied to Vehicle-to-Everything communications, V2X, and comprising: acquiring, by a first base station, a Device-to-Device, D2D, communication resource of a second base station or a D2D communication resource of the first base station itself, wherein the D2D communication resource is a PC5 communication resource used for the V2X; and sending, by the first base station, the acquired D2D communication resource to a User Equipment, UE; wherein the D2D communication resource comprises a D2D communication exceptional transmission resource pool; wherein the D2D communication exceptional transmission resource pool is for use by the UE under any one of the following conditions: a wireless link failure in the UE, running of T310, running of T304, a handover failure in the UE or timeout of T304, cell re-selection of the UE or running of T311, Radio Resource Control, RRC, connection re-establishment of the UE or running of T301, running of T300, or RRC connection establishment of the UE or a connection establishment failure caused by timeout of T300. acquiring, by a first base station, a Device-to-Device, D2D, communication resource of a second base station or a D2D communication resource of the first base station itself, wherein the D2D communication resource is a PC5 communication resource used for the V2X; and sending, by the first base station, the acquired D2D communication resource to a User Equipment, UE; wherein the D2D communication resource comprises a D2D communication exceptional transmission resource pool; wherein the D2D communication exceptional transmission resource pool is for use by the UE under any one of the following conditions: a wireless link failure in the UE, running of T310, running of T304, a handover failure in the UE or timeout of T304, cell re-selection of the UE or running of T311, Radio Resource Control, RRC, connection re-establishment of the UE or running of T301, running of T300, or RRC connection establishment of the UE or a connection establishment failure caused by timeout of T300.
A method for detecting a preamble, comprising: dividing chips of the preamble into a plurality of chip blocks, and performing correlative accumulation on the plurality of chip blocks to obtain multiple groups of partial products of signature components (step 202); performing compensation of positive frequency offset on each group of the multiple groups of partial products of signature components to obtain multiple groups of compensation results of positive frequency offset (step 203), and performing compensation of negative frequency offset on each group of the multiple groups of partial products of signature components to obtain multiple groups of compensation results of negative frequency offset (step 203); and performing coherent accumulation (step 204), phase rotation (step 205), signature matching and complex modulus calculation (step 206), and dual-antenna merging (step 207) on the multiple groups of compensation results of positive frequency offset, and performing the coherent accumulation (step 204), the phase rotation (step 205), the signature matching and the complex modulus calculation (step 206), and the dual-antenna merging (step 207)on the multiple groups of compensation results of negative frequency offset. dividing chips of the preamble into a plurality of chip blocks, and performing correlative accumulation on the plurality of chip blocks to obtain multiple groups of partial products of signature components (step 202); performing compensation of positive frequency offset on each group of the multiple groups of partial products of signature components to obtain multiple groups of compensation results of positive frequency offset (step 203), and performing compensation of negative frequency offset on each group of the multiple groups of partial products of signature components to obtain multiple groups of compensation results of negative frequency offset (step 203); and performing coherent accumulation (step 204), phase rotation (step 205), signature matching and complex modulus calculation (step 206), and dual-antenna merging (step 207) on the multiple groups of compensation results of positive frequency offset, and performing the coherent accumulation (step 204), the phase rotation (step 205), the signature matching and the complex modulus calculation (step 206), and the dual-antenna merging (step 207)on the multiple groups of compensation results of negative frequency offset.
Seed-dressing composition or seed-dressing liquor comprising at least one polyether-modified siloxane and further ingredients selected from fungicides, insecticides, pesticides, herbicides, nematicides, fertilizers, nutrients, microorganisms, stickers, pigments, surfactants, dispersants, free-flow aids and defoamers, characterized in that the at least one polyether-modified siloxane has 43 to 81 silicon atoms.
Device for monitoring an extracorporeal blood flow for a device for extracorporeal blood treatment, the extracorporeal blood treatment device having an extracorporeal blood flow with an arterial branch that leads to a blood treatment unit and that has an arterial patient connection, and with a venous branch that goes from the blood treatment unit and in which a venous cut-off unit is provided upstream of a venous patient connection, and having a blood pump for conveying blood in the extracorporeal flow, the monitoring device having a control and computing unit that is configured such that a first method and a second method for monitoring the arterial and/or venous access may be performed, in each of which the presence of at least one criterion is checked that is characteristic of a vascular access condition that is out of proper order, the at least one criterion for the first method and the at least one criterion for the second method being distinguished from one another, and, such that a vascular access that is not in proper order may be established based on the monitoring with the first and second methods, characterized in that the control and computing unit is configured such that a control signal is generated for stopping the blood pump once the presence of the at least one criterion for the first method has been established, while the venous cut-off unit (16, 17) remains open, and the presence of the at least one criterion is checked with the second method once the control signal for stopping the blood pump has been generated, a control signal for closing the venous cut-off unit being generated if the at least one criterion for the second method is present, and a control signal for starting the blood pump being generated if the at least one criterion for the second method is not present.
Method for washing laundry items in a program-controlled domestic appliance for the care of laundry items, in which a wash liquid present in a tub is heated, a wash temperature is set, laundry-specific and/or appliance-specific parameters are detected and the wash liquid is heated as a function of the parameters in order to set a specific target temperature (Tz), characterised in that during a wetting phase, in which wash liquid is supplied to the tub to wet the laundry items, a heating facility is activated to heat the wash liquid and the wash liquid is heated by means of the heating facility to a wetting phase temperature (Tn) which is lower than the target temperature (Tz) associated with a wash method selected by an operator.