mhurhangee/ep-ind-claims huggingface dataset:
Process for the purification of an aqueous solution comprising at least ethanol, acetaldehyde and diethyl acetal, comprising - a stage A) of countercurrentwise liquid-liquid extraction comprising an extraction section fed at the top with said aqueous solution as a mixture with at least a fraction of the water/ethanol/acetaldehyde raffinate resulting from the re-extraction stage B), this mixture constituting the feedstock of said extraction section of said stage A), and at the bottom with an extraction solvent, and producing, at the top, an extract and, at the bottom, a purified feedstock, carried out at a temperature of between 10 and 40°C and at a pressure of between 0.1 and 0.5 MPa with a flow rate by weight of continuous phase/flow rate by weight of dispersed phase ratio of less than 70; - a stage B) of countercurrentwise liquid-liquid re-extraction comprising a re-extraction section fed at the top with an aqueous acidic solution, the pH of which is between 0.5 and 5, and at the bottom with the extract resulting from stage A), and producing, at the top, an extract and, at the bottom, a water/ethanol/acetaldehyde raffinate, carried out at a temperature of between 10 and 90°C and at a pressure of between 0.1 and 0.5 MPa, a residence time of between 0.5 and 6 h, with a flow rate by weight of continuous phase/flow rate by weight of dispersed phase ratio of less than 70. - a stage A) of countercurrentwise liquid-liquid extraction comprising an extraction section fed at the top with said aqueous solution as a mixture with at least a fraction of the water/ethanol/acetaldehyde raffinate resulting from the re-extraction stage B), this mixture constituting the feedstock of said extraction section of said stage A), and at the bottom with an extraction solvent, and producing, at the top, an extract and, at the bottom, a purified feedstock, carried out at a temperature of between 10 and 40°C and at a pressure of between 0.1 and 0.5 MPa with a flow rate by weight of continuous phase/flow rate by weight of dispersed phase ratio of less than 70; - a stage B) of countercurrentwise liquid-liquid re-extraction comprising a re-extraction section fed at the top with an aqueous acidic solution, the pH of which is between 0.5 and 5, and at the bottom with the extract resulting from stage A), and producing, at the top, an extract and, at the bottom, a water/ethanol/acetaldehyde raffinate, carried out at a temperature of between 10 and 90°C and at a pressure of between 0.1 and 0.5 MPa, a residence time of between 0.5 and 6 h, with a flow rate by weight of continuous phase/flow rate by weight of dispersed phase ratio of less than 70.
A method, comprising: determining one or more resource usage amounts of a plurality of virtual machines running on a host server in a cloud computing environment; identifying a pattern among the one or more resource usage amounts of the plurality of virtual machines over a period of time; creating a new virtual machine profile type with profile parameters that correspond to the identified pattern among the one or more resource usage amounts of the plurality of virtual machines and storing the new virtual machine profile type; determining one or more resource capacity amounts available on the host server for a virtual machine of the plurality of virtual machines running on the host server in the cloud computing environment; determining a virtual machine profile for the virtual machine from among stored virtual machine profile types; calculating anticipated resource usage data for the virtual machine based on the determined virtual machine profile for the virtual machine and the resource usage amounts of the virtual machine; and dynamically allocating different resources of the cloud computing environment to the virtual machine based on a comparison between the anticipated resource usage data for the virtual machine and the one or more resource capacity amounts available on the host server for the virtual machine. determining one or more resource usage amounts of a plurality of virtual machines running on a host server in a cloud computing environment; identifying a pattern among the one or more resource usage amounts of the plurality of virtual machines over a period of time; creating a new virtual machine profile type with profile parameters that correspond to the identified pattern among the one or more resource usage amounts of the plurality of virtual machines and storing the new virtual machine profile type; determining one or more resource capacity amounts available on the host server for a virtual machine of the plurality of virtual machines running on the host server in the cloud computing environment; determining a virtual machine profile for the virtual machine from among stored virtual machine profile types; calculating anticipated resource usage data for the virtual machine based on the determined virtual machine profile for the virtual machine and the resource usage amounts of the virtual machine; and dynamically allocating different resources of the cloud computing environment to the virtual machine based on a comparison between the anticipated resource usage data for the virtual machine and the one or more resource capacity amounts available on the host server for the virtual machine.
An air intake system (30, 130) for a work vehicle, the air intake system (30, 130) comprising: - a filter assembly (32, 132) including a pre-cleaner (36, 136) and an air filter (38, 138), the filter assembly (32, 132) defining at least one outlet port (46, 146, 147); - an air valve (72, 172) movable between an opened position and a closed position; and - a blower (64, 164) coupled to the at least one outlet port (46, 146, 147) via a conduit (58, 158), the blower (64, 164) being configured to create a vacuum within the conduit (58, 158) such that particulates are removed from the filter assembly (32, 132) through the at least one outlet port (46, 146, 147), and characterized in that wherein, when the air valve (72, 172) is in the opened position, an airflow is directed through the filter assembly (32, 132) in an intake direction from the pre-cleaner (36, 136) through the air filter (38, 138) and, when the air valve (72, 172) is in the closed position, the airflow is directed through the air filter (38, 138) to the pre-cleaner (36,136) in a reverse direction. - a filter assembly (32, 132) including a pre-cleaner (36, 136) and an air filter (38, 138), the filter assembly (32, 132) defining at least one outlet port (46, 146, 147); - an air valve (72, 172) movable between an opened position and a closed position; and - a blower (64, 164) coupled to the at least one outlet port (46, 146, 147) via a conduit (58, 158), the blower (64, 164) being configured to create a vacuum within the conduit (58, 158) such that particulates are removed from the filter assembly (32, 132) through the at least one outlet port (46, 146, 147), and characterized in that
Method for operating a heat pump, wherein a fluid is conducted continuously in a fluid circuit and heat energy is in this case transferred from a heat source to the fluid in an evaporator, wherein the fluid is at least partially evaporated and the fluid is then compressed (VS7, VS8) and is then at least partially liquefied at a higher temperature level than the heat source for the purpose of releasing heat energy to a heat sink and is then expanded (VS10, VS12) for the purpose of cooling, and, in a part-load operation, a first partial flow of the fluid is branched off via a first bypass line from the fluid circuit after the compression and before the liquefaction and is fed back to the fluid circuit downstream of the evaporator and before the compression, and, in the part-load operation, a liquid, second partial flow is branched off via a second bypass line from the fluid circuit after the partial liquefaction and upstream of the evaporator and is mixed with the first partial flow before the compression, wherein the ratio of the first and second partial flow is set and/or controlled and/or regulated in such a way that, at the beginning of, during and at the end of the compression, the fluid is in a state in which it is at least in saturated-vapour form to superheated, and a material- or gas-dependent maximum temperature at the end of the compression is not exceeded. wherein the ratio of the first and second partial flow is set and/or controlled and/or regulated in such a way that, at the beginning of, during and at the end of the compression, the fluid is in a state in which it is at least in saturated-vapour form to superheated, and a material- or gas-dependent maximum temperature at the end of the compression is not exceeded.
An electronic component connecting structure, comprising a connecting board, a first component, and a second component, wherein the first component is connected to one side of the connecting board, and the second component is connected to the other side of the connecting board; a perpendicular projection of the first component on a preset plane overlaps a perpendicular projection of the second component on the preset plane, and the preset plane is parallel to a plane on which one side of the connecting board is located; and a padding element is disposed between the first component and the connecting board to avoid mutual interference between the first component and the second component, wherein the connecting board comprises a first connecting sub-board and a second connecting sub-board, the first component is connected to a first side of the first connecting sub-board, and the second component is connected to a second side of the second connecting sub-board; a second side of the first connecting sub-board is connected to a first side of the second connecting sub-board, and the first connecting sub-board has a smaller area than the second connecting sub-board; and the first side of the first connecting sub-board is opposite the second side of the first connecting sub-board, and the first side of the second connecting sub-board is opposite the second side of the second connecting sub-board, wherein the first component is an antenna elastic sheet, the second component is a SIM card tray, and the connecting board is a PCB board. a perpendicular projection of the first component on a preset plane overlaps a perpendicular projection of the second component on the preset plane, and the preset plane is parallel to a plane on which one side of the connecting board is located; and a padding element is disposed between the first component and the connecting board to avoid mutual interference between the first component and the second component, wherein the connecting board comprises a first connecting sub-board and a second connecting sub-board, the first component is connected to a first side of the first connecting sub-board, and the second component is connected to a second side of the second connecting sub-board; a second side of the first connecting sub-board is connected to a first side of the second connecting sub-board, and the first connecting sub-board has a smaller area than the second connecting sub-board; and the first side of the first connecting sub-board is opposite the second side of the first connecting sub-board, and the first side of the second connecting sub-board is opposite the second side of the second connecting sub-board, wherein the first component is an antenna elastic sheet, the second component is a SIM card tray, and the connecting board is a PCB board.
A device for interconnecting at least one sensor and a portable electronic device, the sensor being configured to emit an analogue and/or digital signal based on a measurement and to be activated and/or deactivated remotely, and the portable electronic device being configured to receive and transmit a digital stream sent by the interconnecting device and to emit an activation and/or deactivation signal with an identifier code that identifies it individually, the device for interconnecting comprises: - Receiving means configured to receive the analogue and/or digital signals coming from the sensor; - Processing means configured to decode the signal coming from the sensor, process it and encode it to a digital stream comprising at least: - one identifier code of the device for interconnecting; - one status code comprising the value of the measurement of at least one sensor; - communication means configured to transmit the digital stream to the portable electronic device; - activation and deactivation means configured to receive the activation and/or deactivation signal with an identifier code of the portable device coming from the portable electronic device and activate and/or deactivate the sensor, the receiving means, the processing means and the communication means; and - temporary storage means configured to temporarily store the identifier code of the device for interconnecting and the status code and wherein the activation and deactivation means are further configured to activate and/or deactivate the temporary storage means. - Receiving means configured to receive the analogue and/or digital signals coming from the sensor; - Processing means configured to decode the signal coming from the sensor, process it and encode it to a digital stream comprising at least: - one identifier code of the device for interconnecting; - one status code comprising the value of the measurement of at least one sensor; - one identifier code of the device for interconnecting; - one status code comprising the value of the measurement of at least one sensor; - communication means configured to transmit the digital stream to the portable electronic device; - activation and deactivation means configured to receive the activation and/or deactivation signal with an identifier code of the portable device coming from the portable electronic device and activate and/or deactivate the sensor, the receiving means, the processing means and the communication means; and - temporary storage means configured to temporarily store the identifier code of the device for interconnecting and the status code and wherein the activation and deactivation means are further configured to activate and/or deactivate the temporary storage means.
A connecting system arranged for detachably connecting a prosthesis shaft to a liner that has been pulled over a residual limb, said system including - a connecting pin and - a receiving device with a receiving means into which the connecting pin can be inserted, characterized in that the connecting pin includes at least two rigid pin segments which are arranged one behind another so as to be displaceable toward one another along a longitudinal direction of the connecting pin. - a connecting pin and - a receiving device with a receiving means into which the connecting pin can be inserted,
Control circuit for a LED external lighting unit of a vehicle, said lighting unit comprising at least a LED source (L1, L2) and a passive heatsink, wherein the control circuit comprises: - a temperature sensor adapted to provide a first output signal (s_t) carrying information about the operating temperature of the LED source (L1, L2) and/or of the passive heatsink; - a first output node (NO_1) operatively connectable to an optical and/or acoustic warning device and adapted to provide thereto a first control signal (s_a) depending upon the first output signal (s_t), adapted for generating an alarm warning through said warning device when said temperature is higher than a first threshold value; the control circuit being characterised in that it further comprises: - a driver unit of the LED source (L1, L2) comprising a first input node (NI_1) adapted to receive a second control signal (s_c), depending upon the speed of the vehicle and the first output signal (s_t), the driver unit being adapted to output a LED source driving signal (s_d), said driving signal being a relatively high-power signal or a relatively low-power signal according to the second control signal (s_c); wherein the high-power driving signal (s_d) is a direct current driving signal and wherein the low-power driving signal (s_d) is a Pulse Width Modulated signal (PWM signal). - a temperature sensor adapted to provide a first output signal (s_t) carrying information about the operating temperature of the LED source (L1, L2) and/or of the passive heatsink; - a first output node (NO_1) operatively connectable to an optical and/or acoustic warning device and adapted to provide thereto a first control signal (s_a) depending upon the first output signal (s_t), adapted for generating an alarm warning through said warning device when said temperature is higher than a first threshold value; the control circuit being - a driver unit of the LED source (L1, L2) comprising a first input node (NI_1) adapted to receive a second control signal (s_c), depending upon the speed of the vehicle and the first output signal (s_t), the driver unit being adapted to output a LED source driving signal (s_d), said driving signal being a relatively high-power signal or a relatively low-power signal according to the second control signal (s_c); wherein the high-power driving signal (s_d) is a direct current driving signal and wherein the low-power driving signal (s_d) is a Pulse Width Modulated signal (PWM signal).
A process for recovering a "full" viral product from a viral product composition comprising said "full" viral product and an "empty" viral product, which process comprises: A) contacting the composition with a functionalised chromatography medium, whereby the composition has a dissolved salt concentration such that the electrical conductivity is below 10 mS/cm; B) optionally washing the functionalised chromatography medium with a liquid phase of low ionic concentration, corresponding to the loading electric conductivity of A); and C) selectively eluting the "full" viral product and the "empty" viral product by contacting the functionalised chromatography medium with a liquid phase of increasing ionic strength, wherein: (i) the "full" viral product is an Adenovirus or an Adeno-associated virus, or corresponding viral particle containing one or more polynucleotides; (ii) the "empty" viral product is an Adenovirus or an Adeno-associated virus, or corresponding viral particle substantially devoid of polynucleotides; and (iii) the functionalised chromatography medium comprises one or more non-woven non-grafted cellulose nanofibres having a density of 600 to 1,000 μmol trimethylammonium ligand groups per g of functionalised chromatography medium. A) contacting the composition with a functionalised chromatography medium, whereby the composition has a dissolved salt concentration such that the electrical conductivity is below 10 mS/cm; B) optionally washing the functionalised chromatography medium with a liquid phase of low ionic concentration, corresponding to the loading electric conductivity of A); and C) selectively eluting the "full" viral product and the "empty" viral product by contacting the functionalised chromatography medium with a liquid phase of increasing ionic strength, wherein: (i) the "full" viral product is an Adenovirus or an Adeno-associated virus, or corresponding viral particle containing one or more polynucleotides; (ii) the "empty" viral product is an Adenovirus or an Adeno-associated virus, or corresponding viral particle substantially devoid of polynucleotides; and (iii) the functionalised chromatography medium comprises one or more non-woven non-grafted cellulose nanofibres having a density of 600 to 1,000 μmol trimethylammonium ligand groups per g of functionalised chromatography medium. (i) the "full" viral product is an Adenovirus or an Adeno-associated virus, or corresponding viral particle containing one or more polynucleotides; (ii) the "empty" viral product is an Adenovirus or an Adeno-associated virus, or corresponding viral particle substantially devoid of polynucleotides; and (iii) the functionalised chromatography medium comprises one or more non-woven non-grafted cellulose nanofibres having a density of 600 to 1,000 μmol trimethylammonium ligand groups per g of functionalised chromatography medium.
A drying device for a plurality of columnar structures supported upright to a supporting surface, wherein a plurality of feeding parts for feeding drying gas toward the supporting surface and a plurality of discharge parts for discharging the fed drying gas are both provided in an opposing surface facing the supporting surface a bed plate is provided to be removably placed on the supporting surface in a positionally adjusted manner, such that the bed plate can be placed in a predetermined position with respect to the supporting surface, a plurality of molding pins are provided on the bed plate, wherein the molding pins are configured such that the columnar structures can be attached to the molding pins, the molding pins are disposed immediately below the respective discharge parts when the bed plate is placed on the supporting surface in a positionally adjusted manner, and the feeding parts and the discharge parts are disposed either in a staggered form or in a matrix form such that some of the discharge parts are symmetrically disposed around one of the feeding parts, and some of the feeding parts are symmetrically disposed around one of the discharge parts, wherein the feeding parts and the discharge parts are symmetrically disposed with respect to each of the molding pins such that an airflow is created, which uniformly runs along axial directions around the columnar structures. a plurality of feeding parts for feeding drying gas toward the supporting surface and a plurality of discharge parts for discharging the fed drying gas are both provided in an opposing surface facing the supporting surface a bed plate is provided to be removably placed on the supporting surface in a positionally adjusted manner, such that the bed plate can be placed in a predetermined position with respect to the supporting surface, a plurality of molding pins are provided on the bed plate, wherein the molding pins are configured such that the columnar structures can be attached to the molding pins, the molding pins are disposed immediately below the respective discharge parts when the bed plate is placed on the supporting surface in a positionally adjusted manner, and the feeding parts and the discharge parts are disposed either in a staggered form or in a matrix form such that some of the discharge parts are symmetrically disposed around one of the feeding parts, and some of the feeding parts are symmetrically disposed around one of the discharge parts, wherein the feeding parts and the discharge parts are symmetrically disposed with respect to each of the molding pins such that an airflow is created, which uniformly runs along axial directions around the columnar structures.