mhurhangee/ep-ind-claims huggingface dataset:
A process for maintaining blood in an insulated vessel at 22 °C ± 2 °C for at least 15 hours where the ambient temperature outside the insulated vessel is between 39 °C and -35 °C, comprising: a.) cooling blood contained in a flexible polymer pouch to about 22 °C using a contained phase change material which consists essentially of 98 % 1-dodecanol, 1.5 % myristyl alcohol and 0.5 % 1-decanol, and wherein the container for the phase change material covers a major portion of each of the two largest surfaces of the flexible polymer pouch, wherein: (i) the contained phase change material was pre-conditioned at 22 °C or less for about 12 hours or more; and (ii) the contained phase change material is positioned to cover said major portions for about 2 hours or until the temperature of the blood drops to 22 °C ± 2 °C; b.) the contained phase change material covering said major portions is placed into said insulated vessel and the insulated vessel is subjected to temperatures between 39 °C and -35 °C for up to 15 hours, wherein the contained phase change material maintains the blood in the flexible polymer pouch at 22 °C ± 2 °C; and c.) blood is withdrawn from the flexible polymer pouch for use in a process to produce blood products. a.) cooling blood contained in a flexible polymer pouch to about 22 °C using a contained phase change material which consists essentially of 98 % 1-dodecanol, 1.5 % myristyl alcohol and 0.5 % 1-decanol, and wherein the container for the phase change material covers a major portion of each of the two largest surfaces of the flexible polymer pouch, wherein: (i) the contained phase change material was pre-conditioned at 22 °C or less for about 12 hours or more; and (ii) the contained phase change material is positioned to cover said major portions for about 2 hours or until the temperature of the blood drops to 22 °C ± 2 °C; (i) the contained phase change material was pre-conditioned at 22 °C or less for about 12 hours or more; and (ii) the contained phase change material is positioned to cover said major portions for about 2 hours or until the temperature of the blood drops to 22 °C ± 2 °C; b.) the contained phase change material covering said major portions is placed into said insulated vessel and the insulated vessel is subjected to temperatures between 39 °C and -35 °C for up to 15 hours, wherein the contained phase change material maintains the blood in the flexible polymer pouch at 22 °C ± 2 °C; and c.) blood is withdrawn from the flexible polymer pouch for use in a process to produce blood products.
A facsimile machine having an input unit, through which a user inputs an instruction to the facsimile machine, and capable of transmitting facsimile usable data to an external machine, which is communicably connected to the facsimile machine and identified by a unique destination ID, comprising: a destination ID storing means storing a plurality of destination IDs; a first obtaining means for obtaining a first destination ID of an external machine, according to one of: 1) the user's manual input to the input unit; and 2) the user's selection from among the plurality of destination IDs stored in the destination ID storing means, as inputted by the user through the input unit; a scanning unit arranged to read an image formed on a recording medium and to generate facsimile usable data indicating the read image; a second obtaining means for obtaining, after the first obtaining means has obtained the first destination ID according to the user's manual input to the input unit, a second destination ID of the external machine according to the user's manual input to the input unit; and a first judging means arranged to function when the first destination ID is inputted by the user through the input unit manually, the first judging means being for judging as to whether the first destination ID coincides with the second destination ID; and a transmission controlling means for transmitting the facsimile usable data to an intended external machine which is identified by a correct destination ID detected based on a coincidence between the first destination ID and the second destination ID as judged by the first judging means. a destination ID storing means storing a plurality of destination IDs; a first obtaining means for obtaining a first destination ID of an external machine, according to one of: 1) the user's manual input to the input unit; and 2) the user's selection from among the plurality of destination IDs stored in the destination ID storing means, as inputted by the user through the input unit; a scanning unit arranged to read an image formed on a recording medium and to generate facsimile usable data indicating the read image; a second obtaining means for obtaining, after the first obtaining means has obtained the first destination ID according to the user's manual input to the input unit, a second destination ID of the external machine according to the user's manual input to the input unit; and a first judging means arranged to function when the first destination ID is inputted by the user through the input unit manually, the first judging means being for judging as to whether the first destination ID coincides with the second destination ID; and a transmission controlling means for transmitting the facsimile usable data to an intended external machine which is identified by a correct destination ID detected based on a coincidence between the first destination ID and the second destination ID as judged by the first judging means.
A transmission system for relaying communication of communication systems, the transmission system comprising: a relay unit (111-117, 131-138) configured to relay uplink communication and downlink communication of a communication system that performs a time division duplex mode through signals of different wavelengths: characterized by an information acquisition unit (118, 139) configured to acquire time division information indicating timings of the uplink communication and the downlink communication in the communication system that performs the TDD mode; a calculation unit (119, 140) configured to calculate a free period unused in relaying of communication of the communication system that performs the TDD mode on the basis of the time division information for each wavelength; and an instruction unit (120, 141) configured to instruct the relay unit to relay communication of another communication system different from the communication system that performs the TDD mode in the free period for each wavelength calculated by the calculation unit. a relay unit (111-117, 131-138) configured to relay uplink communication and downlink communication of a communication system that performs a time division duplex mode through signals of different wavelengths: characterized by an information acquisition unit (118, 139) configured to acquire time division information indicating timings of the uplink communication and the downlink communication in the communication system that performs the TDD mode; a calculation unit (119, 140) configured to calculate a free period unused in relaying of communication of the communication system that performs the TDD mode on the basis of the time division information for each wavelength; and an instruction unit (120, 141) configured to instruct the relay unit to relay communication of another communication system different from the communication system that performs the TDD mode in the free period for each wavelength calculated by the calculation unit.
A kit for monitoring the prognosis of a patient having suffered from acute myocardial ischemia consisting of (a) probes for measuring a panel of miRNA biomarkers in a sample of bodily fluid of said patient, said panel of miRNA biomarkers consisting of: (a) miR-16 encoded by SEQ ID NO:1, (b) miR-27a encoded by SEQ ID NO:2, (c) miR-101 encoded by SEQ ID NO:3, and (d) miR-150 encoded by SEQ ID NO:4, and optionally (b) detection reagents for measuring Nt-pro-BNP as shown in SEQ ID NO:5 in a sample of bodily fluid of said patient. (a) miR-16 encoded by SEQ ID NO:1, (b) miR-27a encoded by SEQ ID NO:2, (c) miR-101 encoded by SEQ ID NO:3, and (d) miR-150 encoded by SEQ ID NO:4,
An apparatus comprising means configured to: receive, at an apparatus, at least two groups of audio signals, each group having at least two audio signals, wherein the at least two audio signals for each group are provided from at least two closely spaced microphones (11 1, 11 2, 11 4, 11 3) located on the apparatus; generate a first formed audio signal from a first group of the at least two groups of audio signals having emphasis towards a recording direction relative to the apparatus; generate a second formed audio signal from a second group of the at least two groups of audio signals having emphasis towards the same recording direction relative to the apparatus; analyse the first formed audio signal and the second formed audio signal to estimate a direction of at least one audio source and determine an audio signal associated with the at least one audio source; and generate at least one output audio signal based on the estimated direction of the at least one audio source and the audio signal associated with the at least one audio source. receive, at an apparatus, at least two groups of audio signals, each group having at least two audio signals, wherein the at least two audio signals for each group are provided from at least two closely spaced microphones (11 1, 11 2, 11 4, 11 3) located on the apparatus; generate a first formed audio signal from a first group of the at least two groups of audio signals having emphasis towards a recording direction relative to the apparatus; generate a second formed audio signal from a second group of the at least two groups of audio signals having emphasis towards the same recording direction relative to the apparatus; analyse the first formed audio signal and the second formed audio signal to estimate a direction of at least one audio source and determine an audio signal associated with the at least one audio source; and generate at least one output audio signal based on the estimated direction of the at least one audio source and the audio signal associated with the at least one audio source.
Housing for an optical unit, the said housing comprising a frangible fixing lug enabling the housing to be fixed to the structure of a vehicle, the said frangible fixing lug comprising at least one precut line configured to create a rupture zone and to delimit the said rupture zone from the said frangible fixing lug intended to rupture in the event of an impact characterized in that the frangible bracket comprises, at least in part over a persistent area distinct from the rupture area, a network of stiffening ribs configured so that, after rupture of the rupture area of the frangible bracket the portions of the stiffening ribs belonging to the persistent zone define a housing capable of receiving a substitute fastening tab and of ensuring functions of guiding in insertion and of holding said substitute fastening tab intended to be fastened to the housing in replacement of the fracture zone of the broken frangible fastening tab the persistent zone of the frangible fixing tab having a non-through shaft intended to be located in the housing opposite a shaft provided in the substitute fixing tab when the said fixing tab is inserted into the said housing, the said non-through shaft being intended to be pierced when a fixing screw passes between the said non-through shaft of the frangible fixing bracket 100 and the fixing shaft 12 of the substitute fixing bracket when the latter is fitted.
A station, STA, comprising: a transceiver (1020, 1040; 200); and logic, at least a portion of which is in hardware, the logic configured to: receive a beacon to indicate a schedule for transmission, by an access point, AP, of a set of sounding frames for frequency selective transmission channel estimation, by the STA, in a Wireless Fidelity, Wi-Fi, network, wherein the set of sounding frames are transmitted on a set of subchannels; receive, according to the schedule, the set of sounding frames transmitted by the AP on the set of subchannels; select a subchannel from the set of subchannels based on the received set of sounding frames; and send a power-saving poll, PS-Poll, frame to indicate the selected subchannel. a transceiver (1020, 1040; 200); and logic, at least a portion of which is in hardware, the logic configured to: receive a beacon to indicate a schedule for transmission, by an access point, AP, of a set of sounding frames for frequency selective transmission channel estimation, by the STA, in a Wireless Fidelity, Wi-Fi, network, wherein the set of sounding frames are transmitted on a set of subchannels; receive, according to the schedule, the set of sounding frames transmitted by the AP on the set of subchannels; select a subchannel from the set of subchannels based on the received set of sounding frames; and send a power-saving poll, PS-Poll, frame to indicate the selected subchannel. receive a beacon to indicate a schedule for transmission, by an access point, AP, of a set of sounding frames for frequency selective transmission channel estimation, by the STA, in a Wireless Fidelity, Wi-Fi, network, wherein the set of sounding frames are transmitted on a set of subchannels; receive, according to the schedule, the set of sounding frames transmitted by the AP on the set of subchannels; select a subchannel from the set of subchannels based on the received set of sounding frames; and send a power-saving poll, PS-Poll, frame to indicate the selected subchannel.
A method of forming a slice of bread or bread substitute comprising: providing a particulate mixture including: a. 10 to 25 wt.% flaxseed, b. 0 to 10 wt.% chia seed, wherein the combined amount of a. and b. is 10 to 30 wt.% of the particulate mixture; c. 3 to 20 wt.% soluble fibre selected from the group consisting of resistant dextrin, fructooligosaccharide, galactooligosaccharides, xylan oligosaccharides, arabinoxylans (AXOS), beta glucan, gum acacia, pectin, carboxymethyl cellulose, and hydrolysed guar gum, d. gluten, wherein the particulate mixture comprises up to 30 wt.% gluten, e. 0 to 15 wt.% pulse protein, f. 0 to 9 wt.% of a protein selected from the group consisting of whey protein and hydrolysed wheat protein, wherein the combined amount of d., e., and f. is at least 13 wt.% of the particulate mixture, g. 5 to 30 wt.% egg, h. raising agent; wherein the particulate mixture includes less than 5 wt.% sugar, wherein the particulate mixture includes less than 5 wt.% wheat flour; mixing the particulate mixture with a liquid carrier material; cooking the resultant combination by microwave. providing a particulate mixture including: a. 10 to 25 wt.% flaxseed, b. 0 to 10 wt.% chia seed, a. 10 to 25 wt.% flaxseed, b. 0 to 10 wt.% chia seed, wherein the combined amount of a. and b. is 10 to 30 wt.% of the particulate mixture; c. 3 to 20 wt.% soluble fibre selected from the group consisting of resistant dextrin, fructooligosaccharide, galactooligosaccharides, xylan oligosaccharides, arabinoxylans (AXOS), beta glucan, gum acacia, pectin, carboxymethyl cellulose, and hydrolysed guar gum, d. gluten, wherein the particulate mixture comprises up to 30 wt.% gluten, e. 0 to 15 wt.% pulse protein, f. 0 to 9 wt.% of a protein selected from the group consisting of whey protein and hydrolysed wheat protein, c. 3 to 20 wt.% soluble fibre selected from the group consisting of resistant dextrin, fructooligosaccharide, galactooligosaccharides, xylan oligosaccharides, arabinoxylans (AXOS), beta glucan, gum acacia, pectin, carboxymethyl cellulose, and hydrolysed guar gum, d. gluten, wherein the particulate mixture comprises up to 30 wt.% gluten, e. 0 to 15 wt.% pulse protein, f. 0 to 9 wt.% of a protein selected from the group consisting of whey protein and hydrolysed wheat protein, wherein the combined amount of d., e., and f. is at least 13 wt.% of the particulate mixture, g. 5 to 30 wt.% egg, h. raising agent; g. 5 to 30 wt.% egg, h. raising agent; wherein the particulate mixture includes less than 5 wt.% sugar, wherein the particulate mixture includes less than 5 wt.% wheat flour;
A computer-implemented method, comprising: acquiring values of mechanical specific energy for at least a portion of a drilled well; characterised by the step of: determining one or more parameters of a well completion design for at least the portion of the drilled well based on the MSE values. acquiring values of mechanical specific energy for at least a portion of a drilled well; characterised by the step of: determining one or more parameters of a well completion design for at least the portion of the drilled well based on the MSE values.
A method to produce a groove inner surface of a groove forming a workpiece surface on a rod-shaped workpiece, whereby the groove is produced starting from a first groove end using a machining machine comprising a laser that produces laser beam impulses, with a laser head that directs the laser beam impulses of the laser onto the workpiece, and with a machine drive unit that has at least one machine axis drive that is configured to move the workpiece and the laser head relative to one another in at least one translational and/or rotational degree of freedom (X, Y, Z, DX, DY, DZ), comprising the following steps: - Positioning and/or orienting the workpiece relative to the laser head; - Specifying and/or selecting an outside contour of a pulse area and points of incidence separated from one another and arranged within the pulse area, onto which the laser beam impulses from the laser head are emitted in a specified sequence, such that the outside contour of the pulse area corresponds to the cross sectional contour of the groove to be produced, - Emitting the laser beam impulses via the laser head in an emission direction onto the workpiece onto the specified points of incidence within the pulse area, wherein, during the machining, the laser beam impulses are oriented tangential to the section of the workpiece surface that is produced by the machining of the workpiece and that borders the pulse area; - Moving the laser head and/or the workpiece relative to one another in such a way that the pulse area on which the material removal takes place is moved with respect to the workpiece exclusively in the emission direction following a specified path of motion to produce the workpiece surface. - Positioning and/or orienting the workpiece relative to the laser head; - Specifying and/or selecting an outside contour of a pulse area and points of incidence separated from one another and arranged within the pulse area, onto which the laser beam impulses from the laser head are emitted in a specified sequence, such that the outside contour of the pulse area corresponds to the cross sectional contour of the groove to be produced, - Emitting the laser beam impulses via the laser head in an emission direction onto the workpiece onto the specified points of incidence within the pulse area, wherein, during the machining, the laser beam impulses are oriented tangential to the section of the workpiece surface that is produced by the machining of the workpiece and that borders the pulse area; - Moving the laser head and/or the workpiece relative to one another in such a way that the pulse area on which the material removal takes place is moved with respect to the workpiece exclusively in the emission direction following a specified path of motion to produce the workpiece surface.
Method for operating a converter to supply electrical power to a load, comprising the steps of: - controlling the converter for a provided overload time period, so that overload power is applied to the load; and - controlling the converter for a provided resting time period, so that resting power is applied to the load; wherein the overload power is higher than a nominal power which corresponds to a steady-state operation limit of the converter, wherein the resting power is lower than the nominal power, - wherein the converter is controlled in response to an externally provided information, wherein the power applied to the load is limited as soon as the externally provided information causes the converter to provide overload power for more than a given maximum overload time period, - wherein after the maximum overload time period the power to be applied to the load is limited according to a limitation function which provides a limitation value which reduces an allowable power from the overload power to the nominal power according to a predetermined time characteristics, by which a stepwise reduction of power is avoided. - controlling the converter for a provided overload time period, so that overload power is applied to the load; and - controlling the converter for a provided resting time period, so that resting power is applied to the load; wherein the overload power is higher than a nominal power which corresponds to a steady-state operation limit of the converter, wherein the resting power is lower than the nominal power, - wherein the converter is controlled in response to an externally provided information, wherein the power applied to the load is limited as soon as the externally provided information causes the converter to provide overload power for more than a given maximum overload time period, - wherein after the maximum overload time period the power to be applied to the load is limited according to a limitation function which provides a limitation value which reduces an allowable power from the overload power to the nominal power according to a predetermined time characteristics, by which a stepwise reduction of power is avoided.
An earphone connection interface, comprising: a terminal left terminal, a terminal right terminal, a terminal ground terminal, an earphone detection terminal, and a terminal microphone terminal, disposed along an inner wall of a cylindrical groove; a switch element for selectively converting an electrical potential of the terminal microphone terminal, the switch element having a control terminal, characterized in that the earphone connection interface further comprises: a capacitor connected to the terminal microphone terminal through the switch element; and an ear microphone bias voltage source, wherein the switch element forms a first circuit path to electrically connect the terminal microphone terminal and the capacitor so that the capacitor is charged by the ear microphone bias voltage source while a voltage of the ear microphone bias voltage source is provided to the terminal microphone terminal, and wherein the switch element forms a second circuit path to electrically disconnect the terminal microphone terminal and the capacitor so that electric charges of the capacitor are not induced to an earphone device through the terminal left terminal or the terminal right terminal. a terminal left terminal, a terminal right terminal, a terminal ground terminal, an earphone detection terminal, and a terminal microphone terminal, disposed along an inner wall of a cylindrical groove; a switch element for selectively converting an electrical potential of the terminal microphone terminal, the switch element having a control terminal, characterized in that the earphone connection interface further comprises: a capacitor connected to the terminal microphone terminal through the switch element; and an ear microphone bias voltage source, a capacitor connected to the terminal microphone terminal through the switch element; and an ear microphone bias voltage source, wherein the switch element forms a first circuit path to electrically connect the terminal microphone terminal and the capacitor so that the capacitor is charged by the ear microphone bias voltage source while a voltage of the ear microphone bias voltage source is provided to the terminal microphone terminal, and wherein the switch element forms a second circuit path to electrically disconnect the terminal microphone terminal and the capacitor so that electric charges of the capacitor are not induced to an earphone device through the terminal left terminal or the terminal right terminal.