mhurhangee/ep-ind-claims huggingface dataset:
A whitelist generator (201, 901) which is configured to be applied to a system comprising a plurality of devices (301, 302), the plurality of devices (301, 302) being configured to exchange data with each other according to a model, and which is configured to generate a whitelist (204, 906) corresponding to a state machine (401, 402), the state machine (401, 402) being part of the model and defining normal communication operations in the system, in order to be used for whitelisting intrusion detection, the whitelist generator (201, 901) comprising: a model verification unit (205, 905) that is configured to receive the model and to verify whether or not normal communication in the system has been modeled correctly by verifying that there is no logical contradiction in the state machine (401, 402) by simulation or a mathematically proven method called formal method for the state machine (401, 402), and to output a verified model, for which it is verified that the state machine (401, 402) has no logical contradiction; and a model conversion unit (203, 904) that is configured to convert the verified model into the whitelist (204, 906) by converting the state machine (401, 402)into the whitelist (204, 906). a model verification unit (205, 905) that is configured to receive the model and to verify whether or not normal communication in the system has been modeled correctly by verifying that there is no logical contradiction in the state machine (401, 402) by simulation or a mathematically proven method called formal method for the state machine (401, 402), and to output a verified model, for which it is verified that the state machine (401, 402) has no logical contradiction; and a model conversion unit (203, 904) that is configured to convert the verified model into the whitelist (204, 906) by converting the state machine (401, 402)into the whitelist (204, 906).
A method for detecting trisomy 21 in a fetus carried by a pregnant woman, comprising the steps of: (a) determining the methylation status of a CpG-containing genomic sequence in a whole blood, serum, plasma, urine or saliva sample from the woman, wherein the genomic sequence is at least 15 nucleotides in length, comprising at least one cytosine, and is within a region on chromosome 21, the region consisting of genomic locus Holocarboxylase Synthetase (HLCS) and a DNA sequence of no more than 10 kb upstream and/or downstream from the locus, and wherein the genomic sequence from the fetus and the genomic sequence from the woman are differentially methylated, thereby distinguishing the genomic sequence from the woman and the genomic sequence from the fetus in the sample; (b) determining in the whole blood, serum, plasma, urine or saliva sample the level of the genomic sequence from the fetus; and (c) comparing the level of the genomic sequence from the fetus with a standard control, wherein an increase from the standard control indicates the presence of trisomy 21. (a) determining the methylation status of a CpG-containing genomic sequence in a whole blood, serum, plasma, urine or saliva sample from the woman, wherein the genomic sequence is at least 15 nucleotides in length, comprising at least one cytosine, and is within a region on chromosome 21, the region consisting of genomic locus Holocarboxylase Synthetase (HLCS) and a DNA sequence of no more than 10 kb upstream and/or downstream from the locus, and wherein the genomic sequence from the fetus and the genomic sequence from the woman are differentially methylated, thereby distinguishing the genomic sequence from the woman and the genomic sequence from the fetus in the sample; (b) determining in the whole blood, serum, plasma, urine or saliva sample the level of the genomic sequence from the fetus; and (c) comparing the level of the genomic sequence from the fetus with a standard control, wherein an increase from the standard control indicates the presence of trisomy 21.
A hanging bracket for the wall assembly of a wall-cupboard of the type comprising, in combination: a metallic base, an arm assembled and articulated on said base and protruding from it with a hook suitable for being anchored to a plate (or other equivalent element) fixed to said wall, first and second regulation mechanisms (19, 20) for regulating the position of said arm in height and in depth, respectively, a flange integral with said base and equipped with at least one fixing unit of the hanging bracket to said wall-cupboard, wherein said fixing unit comprises a cutting-resistant element cooperating with a fixing peg of the hanging bracket to a shoulder of the cupboard, said peg being fitted onto a collar protruding from said flange, there also being reciprocal fixing means between said collar and said peg, to make them integral with each other, said peg being a pin suitable for being press-inserted into a corresponding hole positioned in the shoulder of said wall-cupboard said collar being produced in a single piece from said flange said pin being a flexible plastic pin having a sawtooth profile characterized in that said peg has an inner end-seat fitted on the outside of said collar.
A display device, comprising: a) a liquid crystal panel; b) a backlight unit, configured to provide the liquid crystal panel with a light source; c) a digital interactive interface for video and audio (DIIVA), configured to input/output all signals into/from the display device; d) a signal conversion module, configured to convert the signal input via the digital interactive interface for video and audio into a first signal; e) a signal processing unit, configured to e1) adjust a resolution of the first signal converted by the signal conversion module to a predetermined resolution, e2) convert the first signal having the predetermined resolution into a second signal for time-sequence control over the liquid crystal panel so as to reduce power consumption of the display device, and e3) transmit the second signal to the liquid crystal panel; and f) a power source module, configured to supply power to the liquid crystal panel, the backlight unit and the signal processing unit respectively. a) a liquid crystal panel; b) a backlight unit, configured to provide the liquid crystal panel with a light source; c) a digital interactive interface for video and audio (DIIVA), configured to input/output all signals into/from the display device; d) a signal conversion module, configured to convert the signal input via the digital interactive interface for video and audio into a first signal; e) a signal processing unit, configured to e1) adjust a resolution of the first signal converted by the signal conversion module to a predetermined resolution, e2) convert the first signal having the predetermined resolution into a second signal for time-sequence control over the liquid crystal panel so as to reduce power consumption of the display device, and e3) transmit the second signal to the liquid crystal panel; and e1) adjust a resolution of the first signal converted by the signal conversion module to a predetermined resolution, e2) convert the first signal having the predetermined resolution into a second signal for time-sequence control over the liquid crystal panel so as to reduce power consumption of the display device, and e3) transmit the second signal to the liquid crystal panel; and f) a power source module, configured to supply power to the liquid crystal panel, the backlight unit and the signal processing unit respectively.
A method for preparing osteoblasts, the method comprising culturing mammal differentiated somatic cells in a medium in the presence of at least one compound selected from the group consisting of statin compounds, casein kinase 1 inhibitors, cAMP inducers, and histone methyltransferase inhibitors, to convert the somatic cells into osteoblasts, wherein the somatic cells are fibroblasts, gingival cells, or adipocytes. statin compounds, casein kinase 1 inhibitors, cAMP inducers, and histone methyltransferase inhibitors,
A rotary machine system comprising: a rotary machine having a gas seal portion; a gas seal device connected to the rotary machine and configured to supply a seal gas (Gs) to the gas seal portion; and a connecting pipe configured to connect the gas seal portion and the gas seal device, wherein the rotary machine comprises a casing through which a working fluid flows, a rotary shaft configured to pass through an inside and an outside of the casing and provided to be rotatable, and the gas seal portion provided between the casing and the rotary shaft and configured to seal the working fluid by the seal gas (Gs) having a supply pressure (P1b) higher than that of the working fluid in the casing, the gas seal device comprises a seal gas supply pipe through which the seal gas (Gs) delivered to the connecting pipe flows, a pressure regulating valve provided in the seal gas supply pipe and configured to adjust the supply pressure (P1b) of the seal gas (Gs) supplied to the gas seal portion, a first sensor (S1A) provided in the seal gas supply pipe and configured to detect the supply pressure (P1b) of the seal gas (Gs) located downstream of the pressure regulating valve and upstream of the connecting pipe, and a second sensor provided inside of the casing at opposite side of the gas seal portion through a labyrinth seal and configured to detect an internal pressure of the casing, and a control part configured to control the pressure regulating valve according to the supply pressure (P1b) of the seal gas (Gs) and the internal pressure of the casing, wherein the control part is configured not to change an opening degree of the pressure regulating valve when a differential pressure between the supply pressure (P1b) of the seal gas (Gs) and the internal pressure of the casing is equal to or more than a predetermined lower limit threshold value, or less than a predetermined upper limit threshold value, and the control part is configured to increase the opening degree of the pressure regulating valve to a target opening degree when the differential pressure is less than the predetermined lower limit threshold value; wherein the connecting pipe has a pipe inner diameter larger than that of the seal gas supply pipe; and wherein the control part is configured to increase the opening degree of the pressure regulating valve by multiplying the opening degree by a coefficient α, which is more than 1 when a change amount over time of the pressure (P1b) of the seal gas (Gs) supplied from the gas seal device to the gas seal portion is equal to or more than a predetermined threshold value so that the pressure regulating valve is opened to be larger than the target opening degree.
A system, comprising a token provider server, a first server providing a first application and a service provider providing a second server, the second server providing a second application, the system being configured to perform operations comprising: receiving (202, 502), by the token provider server from the first application, a first request for a first token for first information from the first application, the first information including sensitive information of a user having initiated an application session at the first application, wherein the first request for the first token is part of the application session between a plurality of applications that includes the first application; providing (204, 504), by the token provider server, the first token to the first application; providing, by the first application, the first token to the second application of the plurality of applications as part of an application session flow of the application session, receiving (206, 508), by the token provider server, the first token from the second application; and processing the first token and providing (208, 510) the first information to the second application, by the token provider server, using, by the second application, the first information to perform an action of the application session flow. receiving (202, 502), by the token provider server from the first application, a first request for a first token for first information from the first application, the first information including sensitive information of a user having initiated an application session at the first application, wherein the first request for the first token is part of the application session between a plurality of applications that includes the first application; providing (204, 504), by the token provider server, the first token to the first application; providing, by the first application, the first token to the second application of the plurality of applications as part of an application session flow of the application session, receiving (206, 508), by the token provider server, the first token from the second application; and processing the first token and providing (208, 510) the first information to the second application, by the token provider server, using, by the second application, the first information to perform an action of the application session flow.
A method of training a classification algorithm for a Brain-Computer Interface, the method comprising the steps of: dividing a EEG signal into a plurality of time segments (202, 204, 206), for each time segment (202, 204, 206), dividing a corresponding EEG signal portion into a plurality of frequency bands (208, 210, 212); for each frequency band (208, 210, 212), computing a spatial filtering projection matrix based on a CSP algorithm and a corresponding feature, and computing mutual information of each corresponding feature with respect to one or more motor imagery classes; for each time segment (202, 204, 206), summing the mutual information of all the corresponding features with respect to the respective classes; and selecting the corresponding features of the time segment (202, 204, 206) with a maximum sum of mutual information for one class for training classifiers of the classification algorithm. dividing a EEG signal into a plurality of time segments (202, 204, 206), for each time segment (202, 204, 206), dividing a corresponding EEG signal portion into a plurality of frequency bands (208, 210, 212); for each frequency band (208, 210, 212), computing a spatial filtering projection matrix based on a CSP algorithm and a corresponding feature, and computing mutual information of each corresponding feature with respect to one or more motor imagery classes; for each time segment (202, 204, 206), summing the mutual information of all the corresponding features with respect to the respective classes; and selecting the corresponding features of the time segment (202, 204, 206) with a maximum sum of mutual information for one class for training classifiers of the classification algorithm.
Moisture sensor arrangement comprising - a plate-like semiconductor substrate (1; 11; 21; 31), - an integrated signal processing module (2; 12; 22; 32) arranged directly adjacent on one side of the semiconductor substrate (1; 11; 21; 31) and configured as a packageless CMOS layer stack, - a capacitive moisture sensor (3; 13; 23; 33), which is electrically conductively connected to the signal processing module (1; 11; 21; 31) and is arranged either on the same side of the semiconductor substrate (1; 11; 21; 31) as the signal processing module (2; 12; 22; 32) or on the opposite side of said semiconductor substrate to said signal processing module, wherein - the semiconductor substrate (1; 11; 21; 31) has plated-through holes (4; 14; 24; 34) via which elements on opposite sides of the semiconductor substrate (1; 11; 21; 31) are electrically connectable to one another, and - at least one temperature sensor (5; 15; 25; 35) integrated in the signal processing module (2; 12; 22; 32). - a plate-like semiconductor substrate (1; 11; 21; 31), - an integrated signal processing module (2; 12; 22; 32) arranged directly adjacent on one side of the semiconductor substrate (1; 11; 21; 31) and configured as a packageless CMOS layer stack, - a capacitive moisture sensor (3; 13; 23; 33), which is electrically conductively connected to the signal processing module (1; 11; 21; 31) and is arranged either on the same side of the semiconductor substrate (1; 11; 21; 31) as the signal processing module (2; 12; 22; 32) or on the opposite side of said semiconductor substrate to said signal processing module, wherein - the semiconductor substrate (1; 11; 21; 31) has plated-through holes (4; 14; 24; 34) via which elements on opposite sides of the semiconductor substrate (1; 11; 21; 31) are electrically connectable to one another, and - at least one temperature sensor (5; 15; 25; 35) integrated in the signal processing module (2; 12; 22; 32).
A channel emulator (5, 5a-5i) for a TDMA or F/TDMA communication system having a plurality of subscribers (2, 2a-2f), in which at least one medium (3a-3d) is divided into time slots, wherein the medium (3a-3d) is usable for the duration of each time slot by exactly one subscriber (2, 2a-2f), comprising at least one attenuator with variable attenuation and/or at least one amplifier with variable amplification, characterized in that a switching device (51, 52, 53) is provided, which, before the start of each time slot, assigns a value for the attenuation or amplification to the subscriber (2, 2a-2f), who uses the medium (3a-3d) during the time slot, and/or to the subscriber for whom a message transmitted during said time slot is destined and which adjusts the value at the attenuator or amplifier.
A method of reaction injection molding a polyurethane foam, comprising: recirculating a polyol mixture in a first recirculation loop that is partially evacuated so that the pressure is reduced by an increment of at least 13.3 kPa (100 torr) but no more than 66.7 kPa (500 torr), wherein the polyol mixture comprises from 0.5% to 4% by weight of water; recirculating an isocyanate mixture in a second recirculation loop that is partially evacuated so that the pressure is reduced by an increment of at least 13.3 kPa (100 torr) but no more than 66.7 kPa (500 torr), wherein each pressure reduction is measured from the ambient pressure in the surroundings in which a reaction injection molding apparatus used in the method is operated; impingement mixing a portion of the polyol mixture with a portion of the isocyanate mixture to form a reaction mixture; injecting the reaction mixture into a mold; and, allowing the reaction mixture to react to form a polyurethane foam, with the proviso that no physical blowing agent or gaseous nucleation agent is added to the polyol mixture or to the isocyanate mixture or is injected into either of the first or second recirculation loops. recirculating a polyol mixture in a first recirculation loop that is partially evacuated so that the pressure is reduced by an increment of at least 13.3 kPa (100 torr) but no more than 66.7 kPa (500 torr), wherein the polyol mixture comprises from 0.5% to 4% by weight of water; wherein the polyol mixture comprises from 0.5% to 4% by weight of water; recirculating an isocyanate mixture in a second recirculation loop that is partially evacuated so that the pressure is reduced by an increment of at least 13.3 kPa (100 torr) but no more than 66.7 kPa (500 torr), wherein each pressure reduction is measured from the ambient pressure in the surroundings in which a reaction injection molding apparatus used in the method is operated; wherein each pressure reduction is measured from the ambient pressure in the surroundings in which a reaction injection molding apparatus used in the method is operated; impingement mixing a portion of the polyol mixture with a portion of the isocyanate mixture to form a reaction mixture; injecting the reaction mixture into a mold; and, allowing the reaction mixture to react to form a polyurethane foam, with the proviso that no physical blowing agent or gaseous nucleation agent is added to the polyol mixture or to the isocyanate mixture or is injected into either of the first or second recirculation loops. with the proviso that no physical blowing agent or gaseous nucleation agent is added to the polyol mixture or to the isocyanate mixture or is injected into either of the first or second recirculation loops.
A temperature control mattress, comprising: a body support having a proximal surface that is configured to support a human body; a flexible thermoelectric fabric disposed along at least a portion of the body support such that the flexible thermoelectric fabric is in thermal communication with the proximal surface of the body support and such that the flexible thermoelectric fabric is configured to cool the proximal surface of the body support, wherein the flexible thermoelectric fabric comprises a plurality of carbon nanotubes, and wherein a portion of the carbon nanotubes are single-walled carbon nanotubes. a body support having a proximal surface that is configured to support a human body; a flexible thermoelectric fabric disposed along at least a portion of the body support such that the flexible thermoelectric fabric is in thermal communication with the proximal surface of the body support and such that the flexible thermoelectric fabric is configured to cool the proximal surface of the body support, wherein the flexible thermoelectric fabric comprises a plurality of carbon nanotubes, and wherein a portion of the carbon nanotubes are single-walled carbon nanotubes.
A thermosetting bipolar plate production method for use in polymer electrolyte membrane fuel cells characterized in that the waste bipolar thermosetting material which emerged at the end of or during the bipolar plate production process and consisting of thermosetting binder is used and recycled into the production process wherein the method comprises the steps of: a) cleaning of waste plates having an electrical conductivity higher than 40 S/cm, with organic solvents such as isopropyl alcohol to remove the contamination b) drying of the plates at ambient conditions for 5-10 minutes c) grinding of the plates to 50 micron-2.5 mm particle size d) grouping of the grinded particle according to their sizes with a screen e) Mixing i. 50-90 % by weight graphite ii. 5-35 % by weight thermosetting resin iii. 1-10 % by weight grinded 50 micron- 2.5 mm sized thermosetting used material/waste iv. 0.5-3 % by weight initiator of the total weight of the polymer v. %1-5 by weight internal mold release agent in a mixer f) Spraying of the external mold release agent into the mold g) Curing the mixture at 140°C and 75 bar for 10 minutes a) cleaning of waste plates having an electrical conductivity higher than 40 S/cm, with organic solvents such as isopropyl alcohol to remove the contamination b) drying of the plates at ambient conditions for 5-10 minutes c) grinding of the plates to 50 micron-2.5 mm particle size d) grouping of the grinded particle according to their sizes with a screen e) Mixing i. 50-90 % by weight graphite ii. 5-35 % by weight thermosetting resin iii. 1-10 % by weight grinded 50 micron- 2.5 mm sized thermosetting used material/waste iv. 0.5-3 % by weight initiator of the total weight of the polymer v. %1-5 by weight internal mold release agent in a mixer i. 50-90 % by weight graphite ii. 5-35 % by weight thermosetting resin iii. 1-10 % by weight grinded 50 micron- 2.5 mm sized thermosetting used material/waste iv. 0.5-3 % by weight initiator of the total weight of the polymer v. %1-5 by weight internal mold release agent in a mixer f) Spraying of the external mold release agent into the mold g) Curing the mixture at 140°C and 75 bar for 10 minutes