mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: one or more processors; a memory; and one or more components (104, 106) stored in the memory and executable by the one or more processors to: receive (506, 602), from a user device, a session request; determine that the session request is latency-sensitive; access a data structure storing a plurality of entries of latency information, a first entry of the plurality of entries identifying a first user plane function (110) and a first latency associated with the first user plane function; determine (510, 606) that the first latency is a lowest latency indicated in the plurality of entries; transmit (510, 608, 122), to the first user plane function, a request to provide services from a data network to the user device; and wherein a second entry of the plurality of entries identifies a second user plane function (110) and a second latency associated with the second user plane function, the second user plane function being in closer physical proximity to the user device than the first user plane function, the second latency being greater than the first latency. one or more processors; a memory; and one or more components (104, 106) stored in the memory and executable by the one or more processors to: receive (506, 602), from a user device, a session request; determine that the session request is latency-sensitive; access a data structure storing a plurality of entries of latency information, a first entry of the plurality of entries identifying a first user plane function (110) and a first latency associated with the first user plane function; determine (510, 606) that the first latency is a lowest latency indicated in the plurality of entries; transmit (510, 608, 122), to the first user plane function, a request to provide services from a data network to the user device; and wherein a second entry of the plurality of entries identifies a second user plane function (110) and a second latency associated with the second user plane function, the second user plane function being in closer physical proximity to the user device than the first user plane function, the second latency being greater than the first latency. receive (506, 602), from a user device, a session request; determine that the session request is latency-sensitive; access a data structure storing a plurality of entries of latency information, a first entry of the plurality of entries identifying a first user plane function (110) and a first latency associated with the first user plane function; determine (510, 606) that the first latency is a lowest latency indicated in the plurality of entries; transmit (510, 608, 122), to the first user plane function, a request to provide services from a data network to the user device; and wherein a second entry of the plurality of entries identifies a second user plane function (110) and a second latency associated with the second user plane function, the second user plane function being in closer physical proximity to the user device than the first user plane function, the second latency being greater than the first latency.
A method for using a Sn containing dopant source material for an ion implantation process, comprising the steps of: storing the Sn containing dopant source material in a storage and delivery container; the Sn-containing dopant source material having one or more of the following attributes: (i) stability during storage and delivery; (ii) a vapor pressure of greater than or equal to 2,67 kPa (20 Torr) at room temperature (25°C); (iii) generation of an ion beam capable of doping greater than 10 11 atoms/cm 2 and (iv) naturally occurring as a liquid at room temperature; withdrawing the Sn containing dopant source material in the vapor phase from the storage and delivery container; flowing the vaporized Sn containing dopant source material; and introducing the vaporized Sn-containing dopant source material to an ion source chamber; characterized in that said Sn-containing dopant source material is selected from the group consisting of F 3 SnCH 3, F 3 SnCH=CH 2, (CH 3) 2 Sn(CF 3) 2, F 3 SnCH 2 CH 3, (CH 3) 3 SnCF 3, (CH 3) 3 SnCF 2 CF 3, (CH 3) 3 SnCF=CF 2, F 2 Sn(CH 2 CH 3) 2, F 3 SnCH 2 CH 2 CH 2 CH 3, and Sn(CF 3) 4. storing the Sn containing dopant source material in a storage and delivery container; the Sn-containing dopant source material having one or more of the following attributes: (i) stability during storage and delivery; (ii) a vapor pressure of greater than or equal to 2,67 kPa (20 Torr) at room temperature (25°C); (iii) generation of an ion beam capable of doping greater than 10 11 atoms/cm 2 and (iv) naturally occurring as a liquid at room temperature; (i) stability during storage and delivery; (ii) a vapor pressure of greater than or equal to 2,67 kPa (20 Torr) at room temperature (25°C); (iii) generation of an ion beam capable of doping greater than 10 11 atoms/cm 2 and (iv) naturally occurring as a liquid at room temperature; withdrawing the Sn containing dopant source material in the vapor phase from the storage and delivery container; flowing the vaporized Sn containing dopant source material; and introducing the vaporized Sn-containing dopant source material to an ion source chamber; characterized in that said Sn-containing dopant source material is selected from the group consisting of F 3 SnCH 3, F 3 SnCH=CH 2, (CH 3) 2 Sn(CF 3) 2, F 3 SnCH 2 CH 3, (CH 3) 3 SnCF 3, (CH 3) 3 SnCF 2 CF 3, (CH 3) 3 SnCF=CF 2, F 2 Sn(CH 2 CH 3) 2, F 3 SnCH 2 CH 2 CH 2 CH 3, and Sn(CF 3) 4.
A method for the detection of infection of a mammal subject by a microorganism, the method comprising: i) isolating a fraction of small RNA molecules having a length of about 10-100 nucleotides from a biological sample of the subject; ii) aligning of nucleic acid sequences derived from the small RNA molecules against a reference database comprising the subject nucleic acid genome sequence; iii) subtracting nucleic acid sequences that align with nucleic acid sequences in the reference database to obtain unmapped sequences which do not align with the nucleic acid sequences in the reference database and assembling the unmapped sequences to produce contigs having a length of about 10-500 nucleotides; and iv) identifying the microorganism based on alignment of the contigs against databases comprising nucleic acid sequences. i) isolating a fraction of small RNA molecules having a length of about 10-100 nucleotides from a biological sample of the subject; ii) aligning of nucleic acid sequences derived from the small RNA molecules against a reference database comprising the subject nucleic acid genome sequence; iii) subtracting nucleic acid sequences that align with nucleic acid sequences in the reference database to obtain unmapped sequences which do not align with the nucleic acid sequences in the reference database and assembling the unmapped sequences to produce contigs having a length of about 10-500 nucleotides; and iv) identifying the microorganism based on alignment of the contigs against databases comprising nucleic acid sequences.
A feeding and removing device for feeding and/or removing a long workpiece along a processing line into a processing position or from a processing position of a processing machine, such as a straightening machine, wherein the long workpiece, in particular its two ends, are temporarily carried by one detection means (2A, 2B) each, wherein a horizontal conveying means for the long workpiece adjoins at least one head end (WPA, WPB) of the processing line in a straight elongation (EPA, EPB) of the processing line, wherein at least one of the detection means (2A, 2B) exhibits a gripping head (8A, 8B) for frictionally gripping an end region of the workpiece brought in by the horizontal conveying means, as well as driving means for pulling the undirected workpiece into the processing line and pushing out the directed workpiece onto the at least one horizontal conveying means with the gripping head, and wherein the height of the gripping head (8A, 8B) can be adjusted by means of at least one guiding wagon on the detection means (2A, 2B) for the ends (WA, WB) of the long workpiece (W, characterized in that the at least one horizontal conveying means is a roller bed (3A, 3B), that the gripping head (8A, 8B) can be turned around a center of rotation of the gripping head (8A, 8B), that the gripping head can be adjusted to the height of the workpiece center relative to the at least one horizontal conveying means or the at least one horizontal conveying means can be adjusted to the height of the workpiece center relative to the gripping head, that the gripping head (8A, 8B) exhibits two clamping jaws (18A, 18B) that can be adjusted independently of each other and turned around a center of rotation of the gripping head, and that a rotating head carrying the clamping jaws (18A, 18B) is coupled with an internally hollow base housing by means of an internally hollow live ring for guiding through at least sections of the workpiece, wherein the gripping head can be unconstrainedly displaced on the long workpiece during a processing step, trailing the gripped workpiece end (WA, WB).
A combination sensor for determining radiation impinging a facade (154, 158, 162, 166) of a structure, the combination sensor comprising: a set of two or more physical sensors (142, 144, 146, 148) facing different directions, the set of the two or more physical sensors (142, 144, 146, 148) being configured to be arranged proximate to or on the structure, which set of two or more physical sensors (142, 144, 146, 148) are configured to measure solar radiation in different directions; and hardware and/or software configured to generate a virtual sensor (172, 174, 176, 178), the virtual sensor (172, 174, 176, 178) being configured to provide a combi-sensor value representing solar radiation impinging the facade (154, 158, 162, 166) of the structure based at least in part on solar radiation readings from the set of the two or more physical sensors (142, 144, 146, 148), wherein the facade (154, 158, 162, 166) faces a direction other than a direction aligned with any of the directions of the set of the two or more physical sensors (142, 144, 146, 148), and wherein the facade (154, 158, 162, 166) lacks a physical sensor operable to measure solar radiation in the direction which the facade (154, 158, 162, 166) faces. a set of two or more physical sensors (142, 144, 146, 148) facing different directions, the set of the two or more physical sensors (142, 144, 146, 148) being configured to be arranged proximate to or on the structure, which set of two or more physical sensors (142, 144, 146, 148) are configured to measure solar radiation in different directions; and hardware and/or software configured to generate a virtual sensor (172, 174, 176, 178), the virtual sensor (172, 174, 176, 178) being configured to provide a combi-sensor value representing solar radiation impinging the facade (154, 158, 162, 166) of the structure based at least in part on solar radiation readings from the set of the two or more physical sensors (142, 144, 146, 148), wherein the facade (154, 158, 162, 166) faces a direction other than a direction aligned with any of the directions of the set of the two or more physical sensors (142, 144, 146, 148), and wherein the facade (154, 158, 162, 166) lacks a physical sensor operable to measure solar radiation in the direction which the facade (154, 158, 162, 166) faces.
A method for adjusting a load of a resource server, applied to a scheduling system, comprising: determining a quality fluctuating value of the resource server in a current detection period in accordance with a historical feature value of the resource server and an operation data recorded through an access interface provided by the resource server located at an IP address of the resource server, in the current detection period, wherein the historical feature value is calculated based on the recorded operation data of the resource server, and the historical feature value indicates an average quality parameter of the respective resource server over the current detection period and detection periods before the current detection period; and reading a load weight value currently used by the resource server, comparing the determined quality fluctuating value with a specified fluctuating range, and according to the comparison, when the determined quality fluctuating value is not within the specified fluctuating range, adjusting the load weight value currently used by the resource server and taking the adjusted load weight value as a load weight value of the resource server after the current detection period. a quality fluctuating value of the resource server in a current detection period in accordance with a historical feature value of the resource server and an operation data recorded through an access interface provided by the resource server located at an IP address of the resource server, in the current detection period, wherein the historical feature value is calculated based on the recorded operation data of the resource server, and the historical feature value indicates an average quality parameter of the respective resource server over the current detection period and detection periods before the current detection period; and reading a load weight value currently used by the resource server, comparing the determined quality fluctuating value with a specified fluctuating range, and according to the comparison, when the determined quality fluctuating value is not within the specified fluctuating range, adjusting the load weight value currently used by the resource server and taking the adjusted load weight value as a load weight value of the resource server after the current detection period.
Assembly stand for motorbikes with a post along which a slide having at least one arbor for the motorbike-fixation can be lifted and lowered in longitudinal direction by means of hinge joint (15, 16) via a lever as well as fixable in two end positions, characterised in that the hinge joint has a gear rim with notches wherein a transverse bolt can be inserted to lock different elevation levels.
A coffee machine, comprising: a water reservoir; a water heater; a water pump; a coffee vessel adapted to receive freshly ground coffee; a water delivery system having a water delivery head for delivering heated water to the coffee vessel; and a closing and/or tamping system for closing the coffee vessel and/or compacting ground coffee in the coffee vessel by providing relative movement between the water delivery head and the coffee vessel; wherein: the closing and/or tamping system comprises a hydraulic actuator; the water outlet from the water pump is coupled to the hydraulic actuator by a first fluid coupling; and the water outlet from the water pump is coupled to the water delivery head by a second fluid coupling which includes a passive in-line valve, wherein the passive in-line valve is adapted to open when the pressure reaches a desired pressure. a water reservoir; a water heater; a water pump; a coffee vessel adapted to receive freshly ground coffee; a water delivery system having a water delivery head for delivering heated water to the coffee vessel; and a closing and/or tamping system for closing the coffee vessel and/or compacting ground coffee in the coffee vessel by providing relative movement between the water delivery head and the coffee vessel; wherein: the closing and/or tamping system comprises a hydraulic actuator; the water outlet from the water pump is coupled to the hydraulic actuator by a first fluid coupling; and the water outlet from the water pump is coupled to the water delivery head by a second fluid coupling which includes a passive in-line valve, wherein the passive in-line valve is adapted to open when the pressure reaches a desired pressure. the closing and/or tamping system comprises a hydraulic actuator; the water outlet from the water pump is coupled to the hydraulic actuator by a first fluid coupling; and the water outlet from the water pump is coupled to the water delivery head by a second fluid coupling which includes a passive in-line valve, wherein the passive in-line valve is adapted to open when the pressure reaches a desired pressure.
A method of manufacturing an overheat or fire alarm detection system, comprising the steps of: micromachining a pressure sensor; and securing a sensor tube in fluid communication with said pressure sensor, wherein said micromachining step comprises: forming one or more layers; doping at least a portion of a first layer and forming a cavity at least partially within said doped portion; and forming a deformable diaphragm over said cavity. micromachining a pressure sensor; and securing a sensor tube in fluid communication with said pressure sensor, wherein said micromachining step comprises: forming one or more layers; doping at least a portion of a first layer and forming a cavity at least partially within said doped portion; and forming a deformable diaphragm over said cavity. forming one or more layers; doping at least a portion of a first layer and forming a cavity at least partially within said doped portion; and forming a deformable diaphragm over said cavity.
Interaction method between on the one hand a smartphone or a tablet and on the other hand a timepiece having at least two analog-type pointers (1,2), each of the pointers being controlled independently by a stepper motor (31,32) and referenced relative to a zero-position, the timepiece and the smartphone being able to be in communication through a wireless short-range communication link, the method comprising the steps: S1- capturing image(s) of the timepiece with the smartphone, S2- processing the image(s) to determine accurately the displayed angular positions of the pointers, S3- send correction data from the smartphone to the timepiece, said correction data comprising the so-determined displayed angular positions of the pointers, and/or angular deviations from a reference position, S4- carry out, at the timepiece, an appropriate correction so that the pointers are caused to display the current absolute time. S1- capturing image(s) of the timepiece with the smartphone, S2- processing the image(s) to determine accurately the displayed angular positions of the pointers, S3- send correction data from the smartphone to the timepiece, said correction data comprising the so-determined displayed angular positions of the pointers, and/or angular deviations from a reference position, S4- carry out, at the timepiece, an appropriate correction so that the pointers are caused to display the current absolute time.
A method for producing a polyacrylic acid (salt)-based water absorbing agent, comprising: a surface crosslinking agent addition step of adding a surface crosslinking agent to a water absorbent resin powder; a surface crosslinking step; and a liquid permeability enhancer addition step of adding a liquid permeability enhancer that is selected from insoluble fine particulate compounds and polyvalent cationic compounds, the liquid permeability enhancer addition step being performed simultaneously with the surface crosslinking agent addition step and/or after the surface crosslinking step, wherein a maximum temperature in an atmosphere within a heating section of a heating apparatus used in the surface crosslinking step is in a range from 100 °C to 300 °C, and a minimum dew point in the atmosphere is lower than 45 °C, wherein the temperature and dew point are values measured in an upper space plumb to a water absorbent resin powder being heated in the heating section, and an airflow rate in the heating apparatus is more than 0 but not more than 10,000 Nm 3 /hr or an airflow in the heating apparatus has a ratio of gas relative to an amount of the water absorbent resin powder of not more than 3000 Nm 3 /ton, and the dew point is adjusted by the airflow using steam, dry air, nitrogen, helium, argon, dried air, and/or water vapor generated from water contained in the water absorbent resin powder. a surface crosslinking agent addition step of adding a surface crosslinking agent to a water absorbent resin powder; a surface crosslinking step; and a liquid permeability enhancer addition step of adding a liquid permeability enhancer that is selected from insoluble fine particulate compounds and polyvalent cationic compounds, the liquid permeability enhancer addition step being performed simultaneously with the surface crosslinking agent addition step and/or after the surface crosslinking step, wherein a maximum temperature in an atmosphere within a heating section of a heating apparatus used in the surface crosslinking step is in a range from 100 °C to 300 °C, and a minimum dew point in the atmosphere is lower than 45 °C, wherein the temperature and dew point are values measured in an upper space plumb to a water absorbent resin powder being heated in the heating section, and an airflow rate in the heating apparatus is more than 0 but not more than 10,000 Nm 3 /hr or an airflow in the heating apparatus has a ratio of gas relative to an amount of the water absorbent resin powder of not more than 3000 Nm 3 /ton, and the dew point is adjusted by the airflow using steam, dry air, nitrogen, helium, argon, dried air, and/or water vapor generated from water contained in the water absorbent resin powder. an airflow rate in the heating apparatus is more than 0 but not more than 10,000 Nm 3 /hr or an airflow in the heating apparatus has a ratio of gas relative to an amount of the water absorbent resin powder of not more than 3000 Nm 3 /ton, and the dew point is adjusted by the airflow using steam, dry air, nitrogen, helium, argon, dried air, and/or water vapor generated from water contained in the water absorbent resin powder.
A secondary battery comprising: an electrode assembly comprising a first electrode plate, a separator, and a second electrode plate stacked together and folded about a folding part; an outer case surrounding the electrode assembly; and an electrode lead (111a, 112a) electrically connected to the electrode assembly and extending to the outside of the outer case, characterised in that the electrode assembly further includes a coupling part (811, 812) formed along the folding part and arranged to fix a central region of the electrode assembly. an electrode assembly comprising a first electrode plate, a separator, and a second electrode plate stacked together and folded about a folding part; an outer case surrounding the electrode assembly; and an electrode lead (111a, 112a) electrically connected to the electrode assembly and extending to the outside of the outer case, characterised in that the electrode assembly further includes a coupling part (811, 812) formed along the folding part and arranged to fix a central region of the electrode assembly.