mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for software architecture analysis, comprising: importing (Step 402) an architecture model, wherein the architecture model comprises a plurality of modules, each module is a software code set with a specific function, and each module comprises at least one file, and wherein the importing comprises receiving, by a communication interface of a computer, the architecture model and storing it in a memory of the computer; analyzing (Step 404) files comprised in the plurality of modules to obtain module call information, wherein the module call information comprises a call relationship between the plurality of modules; obtaining an architecture setting by receiving an input by a user, wherein the architecture setting comprises a layering rule and a call rule, the layering rule comprises set information of a plurality of layers and a module comprised at each of the plurality of layers, and the call rule comprises a call rule between modules located at different layers and/or a call rule between modules comprised at each layer; indicating (Step 408) to generate a layered architecture presentation interface based on the layering rule and the module call information, wherein in the layered architecture presentation interface, each module is allocated to an area corresponding to a layer comprising the module; and detecting (Step 410) the module call information based on the call rule, and displaying a detection result by using the layered architecture presentation interface. importing (Step 402) an architecture model, wherein the architecture model comprises a plurality of modules, each module is a software code set with a specific function, and each module comprises at least one file, and wherein the importing comprises receiving, by a communication interface of a computer, the architecture model and storing it in a memory of the computer; analyzing (Step 404) files comprised in the plurality of modules to obtain module call information, wherein the module call information comprises a call relationship between the plurality of modules; obtaining an architecture setting by receiving an input by a user, wherein the architecture setting comprises a layering rule and a call rule, the layering rule comprises set information of a plurality of layers and a module comprised at each of the plurality of layers, and the call rule comprises a call rule between modules located at different layers and/or a call rule between modules comprised at each layer; indicating (Step 408) to generate a layered architecture presentation interface based on the layering rule and the module call information, wherein in the layered architecture presentation interface, each module is allocated to an area corresponding to a layer comprising the module; and detecting (Step 410) the module call information based on the call rule, and displaying a detection result by using the layered architecture presentation interface.
A process for thermolytic fragmentation of a sugar into a composition comprising C 1 -C 3 oxygenates, the process comprising: a. Providing a circulating, fluidized stream of heat carrying particles, wherein the heat carrying particles are circulated to a heating zone to produce heated heat carrying particles, and then the heated heat carrying particles are circulated from the heating zone to a fragmentation zone to provide heat to the fragmentation zone and producing cooled heat carrying particles, and then the cooled heat carrying particles are circulated back to the heating zone for reheating. b. introducing a feedstock solution comprising the sugar into the fragmentation zone of the circulating, fluidized stream of heat carrying particles to absorb heat and convert the sugar by thermolytic fragmentation into the C 1 -C 3 oxygenates; c. separating a fragmentation product stream comprising the C 1 -C 3 oxygenates from the stream of cooled heat carrying particles; and then d. recovering the composition comprising C 1 -C 3 oxygenates from the fragmentation product stream wherein the number of acid sites on the surface of the heat carrying particles is less than 3 μmοl/g as measured by NH 3 -TPD. a. Providing a circulating, fluidized stream of heat carrying particles, wherein the heat carrying particles are circulated to a heating zone to produce heated heat carrying particles, and then the heated heat carrying particles are circulated from the heating zone to a fragmentation zone to provide heat to the fragmentation zone and producing cooled heat carrying particles, and then the cooled heat carrying particles are circulated back to the heating zone for reheating. b. introducing a feedstock solution comprising the sugar into the fragmentation zone of the circulating, fluidized stream of heat carrying particles to absorb heat and convert the sugar by thermolytic fragmentation into the C 1 -C 3 oxygenates; c. separating a fragmentation product stream comprising the C 1 -C 3 oxygenates from the stream of cooled heat carrying particles; and then d. recovering the composition comprising C 1 -C 3 oxygenates from the fragmentation product stream
An intravenous delivery system comprising: a drip unit comprising: an exterior wall shaped to at least partially define a drip chamber that receives a liquid from a liquid source, the exterior wall comprising a seat; an anti-run-dry membrane comprising a plurality of pores that are permeable to the liquid, wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores, the anti-run-dry membrane comprising an attachment surface; and an attachment component that secures the attachment surface to the exterior wall, proximate the seat, wherein the attachment component comprises a secondary exterior wall that cooperates with the exterior wall to define the drip chamber, characterized in that the secondary exterior wall comprises an attachment feature shaped to mate with the exterior wall such that the exterior wall and the secondary exterior wall abut the anti-run-dry membrane to keep the anti-run-dry membrane in place. a drip unit comprising: an exterior wall shaped to at least partially define a drip chamber that receives a liquid from a liquid source, the exterior wall comprising a seat; an anti-run-dry membrane comprising a plurality of pores that are permeable to the liquid, wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores, the anti-run-dry membrane comprising an attachment surface; and an attachment component that secures the attachment surface to the exterior wall, proximate the seat, wherein the attachment component comprises a secondary exterior wall that cooperates with the exterior wall to define the drip chamber, an exterior wall shaped to at least partially define a drip chamber that receives a liquid from a liquid source, the exterior wall comprising a seat; an anti-run-dry membrane comprising a plurality of pores that are permeable to the liquid, wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores, the anti-run-dry membrane comprising an attachment surface; and an attachment component that secures the attachment surface to the exterior wall, proximate the seat, wherein the attachment component comprises a secondary exterior wall that cooperates with the exterior wall to define the drip chamber, characterized in that the secondary exterior wall comprises an attachment feature shaped to mate with the exterior wall such that the exterior wall and the secondary exterior wall abut the anti-run-dry membrane to keep the anti-run-dry membrane in place.
A fluid separator comprising: a body; an inlet for combined fluid; a first outlet for gas, the first outlet connected to and/or integrated with a top of the body and including a vortex finder which includes a receiving portion extending into the body and including a first section and a second section connected to the first section downstream relative to the gas flow; and a second outlet for liquid, wherein the first section has an inner surface that is tapered in a direction of the gas flow, wherein the outer diameter of the first section is smallest near a top of the body and increases towards a bottom of the body, and wherein the second section has an inner surface that is tapered in an opposite direction, wherein the diameter of the second section is smallest at or near the first section and increases towards the top of the body; and. wherein the first section is at least twice as long as the second section. a body; an inlet for combined fluid; a first outlet for gas, the first outlet connected to and/or integrated with a top of the body and including a vortex finder which includes a receiving portion extending into the body and including a first section and a second section connected to the first section downstream relative to the gas flow; and a second outlet for liquid, wherein the first section has an inner surface that is tapered in a direction of the gas flow, wherein the outer diameter of the first section is smallest near a top of the body and increases towards a bottom of the body, and wherein the second section has an inner surface that is tapered in an opposite direction, wherein the diameter of the second section is smallest at or near the first section and increases towards the top of the body; and. wherein the first section is at least twice as long as the second section.
A method for operating an electronic device, the method comprising: determining voice data from which text data is to be obtained, by selecting a voice data from a list of voice data stored in the memory of the electronic device; displaying a waveform of the selected voice data and determining whether a first section in the waveform is selected; if a first section is selected, displaying a frequency waveform of the selected first section, converting the selected first section of voice data into text data, and displaying the text data; if a first section is not selected, converting the entire voice data into text data; and displaying the text data; receiving an input on a position of the displayed text data for selecting a section from among the text data; and in response to selecting the section of text data, determining a second section of voice data within the first section of voice data corresponding to the selected section of text data, and setting the determined second section of voice data as a sound to be used by the electronic device. determining voice data from which text data is to be obtained, by selecting a voice data from a list of voice data stored in the memory of the electronic device; displaying a waveform of the selected voice data and determining whether a first section in the waveform is selected; if a first section is selected, displaying a frequency waveform of the selected first section, converting the selected first section of voice data into text data, and displaying the text data; if a first section is not selected, converting the entire voice data into text data; and displaying the text data; displaying a frequency waveform of the selected first section, converting the selected first section of voice data into text data, and displaying the text data; if a first section is not selected, converting the entire voice data into text data; and displaying the text data; receiving an input on a position of the displayed text data for selecting a section from among the text data; and in response to selecting the section of text data, determining a second section of voice data within the first section of voice data corresponding to the selected section of text data, and setting the determined second section of voice data as a sound to be used by the electronic device.
A method in a wireless device, the method comprising: measuring power of a Device-to-Device, D2D, signal used by the wireless device for D2D operation; determining a power difference between the measured power of the D2D signal and a physical Device-to-Device Synchronization Signal, D2DSS; estimating power of a D2DSS using the measured power of the D2D signal and the determined power difference; and performing a D2D operation using the estimated power of the D2DSS. measuring power of a Device-to-Device, D2D, signal used by the wireless device for D2D operation; determining a power difference between the measured power of the D2D signal and a physical Device-to-Device Synchronization Signal, D2DSS; estimating power of a D2DSS using the measured power of the D2D signal and the determined power difference; and performing a D2D operation using the estimated power of the D2DSS.
Aqueous formulation comprising at least one alkoxylated polypropylenimine, and at least one non-ionic surfactant, selected from alkyl polyglycosides and alkoxylated C 8 -C 14 -Guerbet alcohols. at least one alkoxylated polypropylenimine, and at least one non-ionic surfactant, selected from alkyl polyglycosides and alkoxylated C 8 -C 14 -Guerbet alcohols. alkyl polyglycosides and alkoxylated C 8 -C 14 -Guerbet alcohols.
One or more computer-readable storage media having stored thereon multiple instructions that, when executed by one or more processors of a first device, cause the one or more processors to: receive a photo captured at the first device; determine a second device in close proximity to the first device; determine a connection between the first device and the second device; determine that the photo includes an image of a user of the second device using face recognition; upon determination that the photo includes an image of the user of the second device, automatically send the photo to the second device; receive, from the second device, an indication that the photo is not to be shared; and share, in response to the indication, the photo with no other device. receive a photo captured at the first device; determine a second device in close proximity to the first device; determine a connection between the first device and the second device; determine that the photo includes an image of a user of the second device using face recognition; upon determination that the photo includes an image of the user of the second device, automatically send the photo to the second device; receive, from the second device, an indication that the photo is not to be shared; and share, in response to the indication, the photo with no other device.
A motor current detection apparatus comprising: a current detection unit configured to detect a conduction current flowing from a battery to a brushless motor and output a conduction current signal corresponding to the detected conduction current; a first filter (42, 73, 92) configured to extract a first current signal which is included in the conduction current signal outputted from the current detection unit and is a signal component in a frequency band equal to or lower than a predetermined first cutoff frequency; a second filter (43, 74) configured to extract a second current signal which is included in the conduction current signal outputted from the current detection unit and is a signal component in a predetermined frequency band within a frequency band equal to or lower than a predetermined second cutoff frequency higher than the first cutoff frequency and having the second cutoff frequency as a maximum value; a first overcurrent determination unit (47, 51, R21, R22, 57) configured to determine that a first current corresponding to the first current signal is an overcurrent in a case where a value of the first current signal extracted by the first filter (42, 73, 92) exceeds a previously set first threshold value; and a second overcurrent determination unit (48, 52, R23, R24, 58) configured to determine that a second current corresponding to the second current signal is an overcurrent in a case where a value of the second current signal extracted by the second filter (43, 74) exceeds a previously set second threshold value larger than the first threshold value. a current detection unit configured to detect a conduction current flowing from a battery to a brushless motor and output a conduction current signal corresponding to the detected conduction current; a first filter (42, 73, 92) configured to extract a first current signal which is included in the conduction current signal outputted from the current detection unit and is a signal component in a frequency band equal to or lower than a predetermined first cutoff frequency; a second filter (43, 74) configured to extract a second current signal which is included in the conduction current signal outputted from the current detection unit and is a signal component in a predetermined frequency band within a frequency band equal to or lower than a predetermined second cutoff frequency higher than the first cutoff frequency and having the second cutoff frequency as a maximum value; a first overcurrent determination unit (47, 51, R21, R22, 57) configured to determine that a first current corresponding to the first current signal is an overcurrent in a case where a value of the first current signal extracted by the first filter (42, 73, 92) exceeds a previously set first threshold value; and a second overcurrent determination unit (48, 52, R23, R24, 58) configured to determine that a second current corresponding to the second current signal is an overcurrent in a case where a value of the second current signal extracted by the second filter (43, 74) exceeds a previously set second threshold value larger than the first threshold value.
A method of purifying a gas stream derived from a process wherein a glyceride containing raw-material is converted to hydrocarbon paraffins by hydrogenation, hydrodeoxygenation and/or hydrocracking of fatty acids, their esters and glycerides, including mono-, di- and triglycerides, wherein decarboxylation and decarbonylation reactions or combinations thereof occur as side reactions, subjecting said gas stream containing a minimum of 75 vol-% of hydrogen, and carbon dioxide and at least one sulphide compound as an impurity to amine washing, recovering from the amine washing a gas stream being rich in carbon oxides containing a minimum of 75 vol-% of carbon dioxide as a major component and at least one sulphide compound as an impurity, subjecting said stream being rich in carbon dioxide to the steps of - contacting the gas with an acidic aqueous wash solution of transition metal ions; - binding a portion of the sulphide compounds contained in the gas into insoluble transition metal sulphide compounds; and - separating the formed metal sulphide compounds together with the wash solution from the gas to obtain the purified gas, wherein sulphide removal from the gas is carried out by washing effected in a multistage process,, wherein the washing is carried out such that the gas to be purified will first meet a solution that has a first concentration of metal ions, whereas at the last contact point between the gas and the washing solution the washing solution will have a second concentration of metal ions, said second concentration being at least 2 times greater than the first concentration, transition metal ions comprise copper ions, and acidic aqueous wash solution comprising copper ions less than 1500 wt-ppm as metal, is prepared by reacting CuO powder with a solution of H 2 SO 4 and water. - contacting the gas with an acidic aqueous wash solution of transition metal ions; - binding a portion of the sulphide compounds contained in the gas into insoluble transition metal sulphide compounds; and - separating the formed metal sulphide compounds together with the wash solution from the gas to obtain the purified gas,
A structure comprising: a non-semiconductor substrate that includes a portion of a transformer; and an integrated circuit die bonded to the non-semiconductor substrate by a plurality of microbumps (133, 135, 137, 141, 142), wherein the portion of the transformer in the non-semiconductor substrate is connected to at least one of the microbumps (133, 135, 137, 141, 142), characterized in that the transformer is configured to have a coupling coefficient k at two gigahertz of at least 0.4, and wherein the transformer is configured to have a transformer quality factor Q at two gigahertz of at least ten; wherein the transformer includes a primary and a secondary, wherein parts of the primary and the secondary are located in the integrated circuit die and parts of the primary and the secondary are located in the non-semiconductor substrate, wherein the parts of the transformer in the integrated circuit die are connected to the parts of the transformer in the non-semiconductor substrate via the at least one of the microbumps (133, 135, 137, 141, 142), wherein the primary and the secondary are coupled horizontally, vertically and coaxially. a non-semiconductor substrate that includes a portion of a transformer; and an integrated circuit die bonded to the non-semiconductor substrate by a plurality of microbumps (133, 135, 137, 141, 142), wherein the portion of the transformer in the non-semiconductor substrate is connected to at least one of the microbumps (133, 135, 137, 141, 142), characterized in that the transformer is configured to have a coupling coefficient k at two gigahertz of at least 0.4, and wherein the transformer is configured to have a transformer quality factor Q at two gigahertz of at least ten; wherein the transformer includes a primary and a secondary, wherein parts of the primary and the secondary are located in the integrated circuit die and parts of the primary and the secondary are located in the non-semiconductor substrate, wherein the parts of the transformer in the integrated circuit die are connected to the parts of the transformer in the non-semiconductor substrate via the at least one of the microbumps (133, 135, 137, 141, 142), wherein the primary and the secondary are coupled horizontally, vertically and coaxially.