mhurhangee/ep-ind-claims huggingface dataset:
A transmission device comprising: an information bit generation unit configured to generate an information bit sequence; a primary code generation unit configured to generate a long-period code; an inversion pattern control unit configured to control a position where a bit is to be inverted in the inversion pattern generated by an inversion pattern generation unit; a modulation unit configured to modulate the spread data sequence and to transmit the spread data sequence after modulation; a secondary code generation unit configured to generate a secondary code that includes a short-period code having a shorter period than the long-period code and information other than the short-period code; the inversion pattern generation unit configured to generate an inversion pattern used to invert the short-period code included in the secondary code; a spreading unit configured to generate a spread data sequence using the information bit sequence, the secondary code and the long-period code; a code period counting unit configured to count a number of times the short period code is generated and to output the number of times of generation; and a secondary code control unit configured to control a position where information other than the short-period code is inserted between a plurality of the short-period codes for each period of the secondary code depending on the number of times of generation; wherein the spreading unit is configured to generate the spread data sequence using a spreading code in which the long-period code and the secondary code are overlaid. an information bit generation unit configured to generate an information bit sequence; a primary code generation unit configured to generate a long-period code; an inversion pattern control unit configured to control a position where a bit is to be inverted in the inversion pattern generated by an inversion pattern generation unit; a modulation unit configured to modulate the spread data sequence and to transmit the spread data sequence after modulation; a secondary code generation unit configured to generate a secondary code that includes a short-period code having a shorter period than the long-period code and information other than the short-period code; the inversion pattern generation unit configured to generate an inversion pattern used to invert the short-period code included in the secondary code; a spreading unit configured to generate a spread data sequence using the information bit sequence, the secondary code and the long-period code; a code period counting unit configured to count a number of times the short period code is generated and to output the number of times of generation; and a secondary code control unit configured to control a position where information other than the short-period code is inserted between a plurality of the short-period codes for each period of the secondary code depending on the number of times of generation; wherein the spreading unit is configured to generate the spread data sequence using a spreading code in which the long-period code and the secondary code are overlaid.
A process for the preparation of a polyoxyalkylene polyol having a functionality of 2 to 8 and an hydroxyl number of from 5 mg KOH/g to 35 mg KOH/g by reaction of H-functional starter substances (S i), (S c) and (S x) with one or more alkylene oxide(s) in the presence of a double metal cyanide catalyst, comprising (α) forming a starter mixture comprising said H-functional starter substances (S i) and (S x), and said double metal cyanide catalyst, and optionally, stripping the starter mixture under vacuum; (y) continuously adding (a) an alkylene oxide to the starter mixture of step (α); and continuously adding said H-functional starter substance (Sc); wherein (i) steps (γ) and either start simultaneously or step (γ) starts before step (δ); (ii) the theoretical functionality of said H-functional starter substance (S i) is identical to the theoretical functionality of said polyoxyalkylene polyol and the measured hydroxyl number of said H-functional starter substance (S i) is within 10% of the measured hydroxyl number of said polyoxyalkylene polyol; (iii) said H-functional starter substance (S x) has an equivalent weight greater than or equal to 10 Da and less than or equal to 250 Da; (iv) said H-functional starter substance (S c) has an equivalent weight of greater than or equal to 10 Da and less than or equal to 70 Da; (v) in step (δ), the continuous addition of the H-functional starter substance (Sc) is stopped when from 30 weight percent to 99 weight percent of the total amount of alkylene oxide added in step (γ) has been added; and (vi) said hydroxyl numbers are determined according to ASTM D4274-11. (α) forming a starter mixture comprising said H-functional starter substances (S i) and (S x), and said double metal cyanide catalyst, and optionally, stripping the starter mixture under vacuum; (y) continuously adding (a) an alkylene oxide to the starter mixture of step (α); and continuously adding said H-functional starter substance (Sc); wherein (i) steps (γ) and either start simultaneously or step (γ) starts before step (δ); (ii) the theoretical functionality of said H-functional starter substance (S i) is identical to the theoretical functionality of said polyoxyalkylene polyol and the measured hydroxyl number of said H-functional starter substance (S i) is within 10% of the measured hydroxyl number of said polyoxyalkylene polyol; (iii) said H-functional starter substance (S x) has an equivalent weight greater than or equal to 10 Da and less than or equal to 250 Da; (iv) said H-functional starter substance (S c) has an equivalent weight of greater than or equal to 10 Da and less than or equal to 70 Da; (v) in step (δ), the continuous addition of the H-functional starter substance (Sc) is stopped when from 30 weight percent to 99 weight percent of the total amount of alkylene oxide added in step (γ) has been added; and (vi) said hydroxyl numbers are determined according to ASTM D4274-11.
An apparatus comprising first and second electrodes separated by an electrolyte, the first and second electrodes configured to exhibit a potential difference therebetween on interaction of the first electrode with water, wherein the first electrode comprises graphene oxide configured such that its electrical conductance and electrochemical potential are dependent upon the amount of water present, the electrical conductance and electrochemical potential of the first electrode affecting the potential difference between the first and second electrodes, and wherein the apparatus comprises respective first and second terminals configured for electrical connection to a readout circuit to enable determination of the presence and/or amount of water based on the potential difference.
A process for treating product fluid streams in an arrangement of two or more reactors, in particular in reactors on the laboratory scale, i.e. a laboratory catalysis apparatus, having two or more reaction spaces arranged in parallel, wherein (a) a starting fluid stream comprising a liquid feed selected from the class of heavy residue oils and hydrogen or another reaction gas and carrier gas is fed into each of the individual reaction spaces, wherein the heavy residue oil comprises both sulfur-comprising compounds and nitrogen-comprising compounds, where the sulfur content is in the range from 0.5 to 7% by weight and a nitrogen content is in the range from 0.1 to 5% by weight, based on the total liquid feed, wherein the amount of starting fluid fed in has an LHSV in the range from 0.05 to 10 h -1 and each individual reaction space has an internal volume in the range from 1 to 50 ml, and (b) the product fluid streams exiting from the individual reaction spaces are each transferred into a separate separator, and wherein the process has the characteristic feature that at least one inert gas is fed into the individual regions at the outlet side of the reaction space, specifically between the separators and outlet-side flow restrictors, and the ratio of the volume flow of inert gas (V IG) to the volume flow of the product fluid stream (V PFS), V IG /V PFS, is ≥ 10. (a) a starting fluid stream comprising a liquid feed selected from the class of heavy residue oils and hydrogen or another reaction gas and carrier gas is fed into each of the individual reaction spaces, wherein the heavy residue oil comprises both sulfur-comprising compounds and nitrogen-comprising compounds, where the sulfur content is in the range from 0.5 to 7% by weight and a nitrogen content is in the range from 0.1 to 5% by weight, based on the total liquid feed, wherein the amount of starting fluid fed in has an LHSV in the range from 0.05 to 10 h -1 and each individual reaction space has an internal volume in the range from 1 to 50 ml, and (b) the product fluid streams exiting from the individual reaction spaces are each transferred into a separate separator, and
A peripheral for an alarm system installation, having a housing, a battery compartment, a cover which is connectable to the housing, the cover providing a first latching arrangement, and a tamper switch cooperating with the first latching arrangement to detect if the cover is present in a position in which it prevents access to the battery compartment and which, upon removal of the cover, changes its switching condition so that a tamper signal is sent out to a central unit as soon as the next tamper check is performed characterised by a battery slider to accommodate one or more batteries to provide power to the peripheral, the battery slider being slidably receivable within the battery compartment and removable from the battery compartment by sliding away from a power supplying position, the first latching arrangement securing the battery slider within the battery compartment to prevent access to, and removal of, the battery slider, and a second latching arrangement securing the battery slider within the battery compartment, the second latching arrangement being accessible only after removal of the cover.
An anode for alkaline water electrolysis comprising a conductive substrate having at least a surface composed of nickel or a nickel-based alloy, and an electrode catalyst layer formed on the surface of the conductive substrate, wherein a catalyst component that constitutes the electrode catalyst layer comprises: a first catalyst component having a nickel-cobalt spinel oxide represented by a structural formula NiCo 2 O 4, or a lanthanide-nickel-cobalt perovskite oxide represented by a structural formula XNi a Co 1-a O 3 (wherein X represents at least one metal selected from among lanthanides including lanthanum, cerium and praseodymium, and 0<a<1), and a second catalyst component having at least one of iridium oxide and ruthenium oxide, wherein an amount of the second catalyst component, calculated as an amount of a component metal, is at least 0.2 g/m 2. a first catalyst component having a nickel-cobalt spinel oxide represented by a structural formula NiCo 2 O 4, or a lanthanide-nickel-cobalt perovskite oxide represented by a structural formula XNi a Co 1-a O 3 (wherein X represents at least one metal selected from among lanthanides including lanthanum, cerium and praseodymium, and 0<a<1), and a second catalyst component having at least one of iridium oxide and ruthenium oxide, wherein an amount of the second catalyst component, calculated as an amount of a component metal, is at least 0.2 g/m 2.
A method of wireless communication, comprising: detecting, by a transmitter in preparation for transmission of a set of data over an unlicensed band, a clear clear channel assessment, CCA, in a CCA opportunity assigned to a network of the transmitter; selecting, by the transmitter, a configuration of a channel usage beacon signal, CUBS, associated with the transmitter based on the CCA opportunity assigned to the network of the transmitter, wherein the configuration of the CUBS associated with the transmitter includes a set of frequency subcarriers for CUBS transmissions; and transmitting, by the transmitter, the CUBS according to transmission characteristics based on the CCA opportunity. detecting, by a transmitter in preparation for transmission of a set of data over an unlicensed band, a clear clear channel assessment, CCA, in a CCA opportunity assigned to a network of the transmitter; selecting, by the transmitter, a configuration of a channel usage beacon signal, CUBS, associated with the transmitter based on the CCA opportunity assigned to the network of the transmitter, wherein the configuration of the CUBS associated with the transmitter includes a set of frequency subcarriers for CUBS transmissions; and transmitting, by the transmitter, the CUBS according to transmission characteristics based on the CCA opportunity.
A composition comprising a) 10% to 25% w/w testosterone; b) one or more penetration enhancers; c) one or more solvents; d) about 4% to about 7% of one or more film forming excipients; and e) one or more washability enhancers, wherein the washability enhancer is about 8% to about 18% the weight of the film forming excipient, wherein said film forming excipient (i) requires a certain pH to dissolve in water or an aqueous environment, that requires 30 parts or less of water to dissolve one part of said film forming excipient, (ii) has a solubility in ethanol that requires 30 parts or less of ethanol to dissolve one part of said film forming excipient; and (iii) can prevent crystallization of said testosterone and maintain said testosterone in an amorphous state during solvent evaporation when said composition is applied to skin; and wherein said composition is a sprayable liquid solution. a) 10% to 25% w/w testosterone; b) one or more penetration enhancers; c) one or more solvents; d) about 4% to about 7% of one or more film forming excipients; and e) one or more washability enhancers, wherein the washability enhancer is about 8% to about 18% the weight of the film forming excipient,
A vacuum pump comprising a turbomolecular pumping mechanism; a drive shaft supported for rotation at its lower end portion by lubricated bearings (18, 20); a lubrication circuit for supplying lubricant to relatively moving inner and outer races of at least one of the bearings (18, 20); wherein the vacuum pump is configured for operation in at least one permissible orientation and wherein the lubrication circuit is arranged such that gravitational force causes lubricant to flow along at least a portion of the circuit only in said at least one permissible orientation of the vacuum pump and operating the vacuum pump in an orientation other than said at least one permissible orientation at least degrades performance of the turbomolecular pumping mechanism; characterised in that the pump further comprises an orientation sensor (28, 116) for sensing an orientation of the vacuum pump; and the orientation sensor is arranged to output a signal indicative of the orientation of the vacuum pump to a control unit arranged to compile data associating operation of the vacuum pump with the sensed orientation of the vacuum pump during operation; the pump further comprising a motor drive unit configured for supplying data relating to the speed of rotation of the pump over time to the control unit for use by the control unit for determining a next maintenance event.
Multi-stage gearbox of planetary construction, in particular automatic gearbox for a motor vehicle, comprising a drive input shaft, a drive output shaft and four planetary gear sets (P1, P2, P3, P4) which are arranged in a housing, a total of eight rotatable shafts (1, 2, 3, 4, 5, 6, 7, 8) and at least six shift elements (03, 04, 05, 13, 18, 36), comprising brakes (03, 04, 05) and clutches (13, 18, 36), the selective engagement of which generates different transmission ratios between the drive input shaft and the drive output shaft, such that nine forward gears and one reverse gear can be realized, wherein the sun gear of the first planetary gear set is connected to the drive input shaft, which is operatively connected to the web of the fourth planetary gear set, wherein the web of the first planetary gear set is connected to the third shaft, which can be coupled by means of a first brake to a housing of the gearbox and which is detachably connected by means of a first clutch to the drive input shaft and by means of a second clutch to the sixth shaft, wherein the sixth shaft is connected to the internal gear of the second planetary gear set, to the sun gear of the third planetary gear set and to the sun gear of the fourth planetary gear set, wherein the seventh shaft is connected to the internal gear of the first planetary gear set and to the web of the second planetary gear set, wherein the sun gear of the second planetary gear set is connected to the fourth shaft, which can be coupled by means of a second brake to a housing of the gearbox, wherein the internal gear of the third planetary gear set is connected to the fifth shaft, which can be coupled by means of a third brake to a housing of the gearbox, and wherein the drive output shaft, which is operatively connected to the internal gear of the fourth planetary gear set is connected to the web of the third planetary gear set.
Autonomous floating device for position control of a mobile boat, characterized in that it comprises: - a means of determining the geographical position; - a propulsion unit; - a power source for powering the propulsion unit; - a means of orienting the force exerted by the propulsion unit; - a means of attaching a cable linked to said boat; - a means of selecting a geographical area; and - means of controlling the propulsion unit and the orientation means, designed, according to the geographical position of the device, to keep the device in said geographical area. - a means of determining the geographical position; - a propulsion unit; - a power source for powering the propulsion unit; - a means of orienting the force exerted by the propulsion unit; - a means of attaching a cable linked to said boat; - a means of selecting a geographical area; and - means of controlling the propulsion unit and the orientation means, designed, according to the geographical position of the device, to keep the device in said geographical area.
A method, comprising: obtaining, with a system process running on a primary processor of an electronic device, user information corresponding to a user of the electronic device; generating, by the system process, rendering information based on the user information; storing, by the system process, the rendering information in a memory of a secondary processor of the electronic device, the secondary processor of the electronic device being a processor other than the primary processor of the electronic device; providing, from the system process to an application running on the primary processor of the electronic device, a location of the rendering information in the memory of the secondary processor; and providing, by the secondary processor and for display, a rendered frame generated by executing application instructions received from the application within a processing environment of the secondary processor, the application instructions including the location of the rendering information, wherein the rendered frame is generated based on the rendering information stored at the location, further wherein the application is prevented from accessing the rendering information outside the processing environment of the secondary processor. obtaining, with a system process running on a primary processor of an electronic device, user information corresponding to a user of the electronic device; generating, by the system process, rendering information based on the user information; storing, by the system process, the rendering information in a memory of a secondary processor of the electronic device, the secondary processor of the electronic device being a processor other than the primary processor of the electronic device; providing, from the system process to an application running on the primary processor of the electronic device, a location of the rendering information in the memory of the secondary processor; and providing, by the secondary processor and for display, a rendered frame generated by executing application instructions received from the application within a processing environment of the secondary processor, the application instructions including the location of the rendering information, wherein the rendered frame is generated based on the rendering information stored at the location, further wherein the application is prevented from accessing the rendering information outside the processing environment of the secondary processor.
A sample separating instrument, for use in emission transfer, which includes a separation medium and a holding section, the separation medium, in which a sample is electrophoresed, having an end part from which the sample is emitted and transferred to a transfer membrane that is moved in a state where the transfer membrane is in contact with the end part of the separation medium, the holding section, which holds the separation medium, having an opening on an end part side, the separation medium having an exposed part which is exposed outside the holding section through the opening, characterised by the exposed part having an extending part which extends on an edge part of the holding section which edge part is located on a side of the opening, and the sample separating instrument further comprising a fixing section for fixing the separation medium to the holding section, the fixing section being provided so as to be located between the edge part and the extending part. the separation medium, in which a sample is electrophoresed, having an end part from which the sample is emitted and transferred to a transfer membrane that is moved in a state where the transfer membrane is in contact with the end part of the separation medium, the holding section, which holds the separation medium, having an opening on an end part side, the separation medium having an exposed part which is exposed outside the holding section through the opening, characterised by the exposed part having an extending part which extends on an edge part of the holding section which edge part is located on a side of the opening, and the sample separating instrument further comprising a fixing section for fixing the separation medium to the holding section, the fixing section being provided so as to be located between the edge part and the extending part.
A method for the preparation of a powdery pharmaceutical composition comprising a polyethylene glycol and α-tocopherol; the method comprising the step of (b) extruding a mixture of the polyethylene glycol and α-tocopherol in an extruder at a temperature profile allowing a liquid melt of the mixture to congeal in the extruder and to exit the extruder in form of a powder, wherein the powder is a homogeneous mixture of the polyethylene glycol and α-tocopherol. (b) extruding a mixture of the polyethylene glycol and α-tocopherol in an extruder at a temperature profile allowing a liquid melt of the mixture to congeal in the extruder and to exit the extruder in form of a powder, wherein the powder is a homogeneous mixture of the polyethylene glycol and α-tocopherol.