mhurhangee/ep-ind-claims huggingface dataset:
A process for the depolymerization of lignin to obtain aromatic products comprising the steps of: a. adding dealkaline lignin and Brönsted ionic liquid having -SO 3 H group in the range of 1:0.25 to 1:1 to a mixture of water and methanol wherein the ratio of methanol to water is in the range of 0:1 to 5:1 to obtain a reaction mixture; b. stirring the reaction mixture obtained in step (a) at a temperature range of 100 to 170°C for a period of 0.5 to 6 hrs to afford the aromatic products with 95- 97% yield and a mass balance of >90%. a. adding dealkaline lignin and Brönsted ionic liquid having -SO 3 H group in the range of 1:0.25 to 1:1 to a mixture of water and methanol wherein the ratio of methanol to water is in the range of 0:1 to 5:1 to obtain a reaction mixture; b. stirring the reaction mixture obtained in step (a) at a temperature range of 100 to 170°C for a period of 0.5 to 6 hrs to afford the aromatic products with 95- 97% yield and a mass balance of >90%.
Multifocal intraocular lens with extended depth of field, the lens comprises in, at least one of the surfaces, a small zone with a multifocal profile with a defined optical axis and, in the peripheral region and coaxial to the multifocal zone, a ring-shaped opaque mask that partially or totally blocks light to produce a small aperture effect and, therefore, the multifocal profile has a radius equal or larger than the internal radius of the mask, wherein there is at least one transition between focal zones or one diffractive step inside the internal radius of the mask; and characterised in that optical axis is misaligned with respect to the geometrical center of the lens.
A multi-layer pipe comprising I. a first layer comprising at least 65 % by weight of high density polyethylene II. a second layer comprising polyethylene with a polymer density ≥ 900 kg/m 3 and ≤ 948 kg/m 3 (measured according to ISO 1183A) and a Melt Flow Rate 190/2.16 in the range ≥ 0,01 and ≤ 400 g/10 min (measured according to ISO 1133 -1(190 °C; 2.16 kg)). wherein the first layer is the outside layer of the pipe and the second layer is the inner layer of the pipe, wherein the high density polyethylene of the first layer is a natural grade HDPE having a polymer density ≥ 940 and ≤ 955 kg/m 3 and Melt Flow Rate 190/5 in the range ≥ 0,1 and ≤ 4 g / 10 min (measured according to ISO1133-1 (190 °C; 5 kg) or the high density polyethylene of the first layer is a compound comprising HDPE and pigment having a density in the range ≥ 947 and ≤ 965 kg/m 3 and Melt Flow Rate 190/5 in the range ≥ 0,1 and ≤ 4 g /10 min and wherein the pipe is a slurry pipe. I. a first layer comprising at least 65 % by weight of high density polyethylene II. a second layer comprising polyethylene with a polymer density ≥ 900 kg/m 3 and ≤ 948 kg/m 3 (measured according to ISO 1183A) and a Melt Flow Rate 190/2.16 in the range ≥ 0,01 and ≤ 400 g/10 min (measured according to ISO 1133 -1(190 °C; 2.16 kg)).
A force feedback controller (100, 200) comprising: a wrist module (118, 216), said wrist module (118, 216) including a first limb attachment configured to couple said force feedback controller (100, 200) to the user's arm; and a grip module (120, 218) coupled to said wrist module (118, 216), said grip module (120, 218) being moveable in a first and second direction relative to said wrist module (118, 216), said first direction being substantially perpendicular to said second direction, said grip module including a linear slide mechanism having a grip attachment, said grip attachment constrained to linear motion in a third direction substantially perpendicular to at least one of said first and second directions, and wherein said grip attachment is configured to couple a grip (810, 900, 1000) to said grip module (120, 218) characterised in that said linear slide mechanism further comprises a linear drive component configured to impart a force on said grip attachment. a wrist module (118, 216), said wrist module (118, 216) including a first limb attachment configured to couple said force feedback controller (100, 200) to the user's arm; and a grip module (120, 218) coupled to said wrist module (118, 216), said grip module (120, 218) being moveable in a first and second direction relative to said wrist module (118, 216), said first direction being substantially perpendicular to said second direction, said grip module including a linear slide mechanism having a grip attachment, said grip attachment constrained to linear motion in a third direction substantially perpendicular to at least one of said first and second directions, and wherein said grip attachment is configured to couple a grip (810, 900, 1000) to said grip module (120, 218) characterised in that said linear slide mechanism further comprises a linear drive component configured to impart a force on said grip attachment.
Method for regulating a temperature control of a drive system; wherein the drive system has at least one gearing with a first device for controlling the temperature of the gearing, and a drive unit; wherein the first device is operated in accordance with a changing setpoint temperature (5, 6) of the drive unit; wherein the first device is set into operation and therefore the gearing is heated when an actual temperature of the drive unit has reached at least one upper first limit temperature, wherein operation of the first device is stopped when the actual temperature of the drive unit corresponds at most to a lower first limit temperature, wherein an upper limit temperature (8, 12) is greater than a lower limit temperature (9, 13) at every time (10, 11); characterized in that the method comprises at least the following steps: a) determining a change of the setpoint temperature (5, 6) from a first setpoint temperature to a second setpoint temperature; b) changing at least the upper first limit temperature into an upper second limit temperature or the lower first limit temperature into a lower second limit temperature, in each case in accordance with the change of the setpoint temperature (5, 6), such that the second limit temperature (12, 13) differs from the first limit temperature (8, 9). a) determining a change of the setpoint temperature (5, 6) from a first setpoint temperature to a second setpoint temperature; b) changing at least the upper first limit temperature into an upper second limit temperature or the lower first limit temperature into a lower second limit temperature, in each case in accordance with the change of the setpoint temperature (5, 6), such that the second limit temperature (12, 13) differs from the first limit temperature (8, 9).
A method of generating display objects, the method comprising operating a processor to: (a) detect an occurrence of an event; (b) define a display time associated with a fixed time following the occurrence of the event; (c) generate a first display object for display by a display device for the fixed time, wherein the first display object is representative of the detected event; (d) output the first display object on the display device; (e) generate a selectable display object for display by the display device for the fixed time; (f) output the selectable display object on the display device; (g) generate a second display object for display by the display device for the fixed time, wherein the second display object is indicative of the display time and a time for which the selectable display object is selectable; and (h) output the second display object on the display device. (a) detect an occurrence of an event; (b) define a display time associated with a fixed time following the occurrence of the event; (c) generate a first display object for display by a display device for the fixed time, wherein the first display object is representative of the detected event; (d) output the first display object on the display device; (e) generate a selectable display object for display by the display device for the fixed time; (f) output the selectable display object on the display device; (g) generate a second display object for display by the display device for the fixed time, wherein the second display object is indicative of the display time and a time for which the selectable display object is selectable; and (h) output the second display object on the display device.
A method of making alkenes and alkynes, the method comprising: (a) combusting a fuel and an oxidizer in a combustion zone of a pyrolytic reactor to create a combustion gas stream; (b) transitioning a velocity of the combustion gas stream from subsonic to supersonic in an expansion zone of the pyrolytic reactor; (c) injecting a light hydrocarbon into the supersonic combustion gas stream to create a mixed stream including the light hydrocarbon; (d) transitioning the velocity of the mixed stream from supersonic to subsonic in a reaction zone of the pyrolytic reactor to produce an alkyne; (e) catalytically hydrogenating the alkyne in a hydrogenation zone to produce an alkene; and (f) recycling a stream from the hydrogenation zone, the recyclable stream including carbon monoxide and/or carbon dioxide. (a) combusting a fuel and an oxidizer in a combustion zone of a pyrolytic reactor to create a combustion gas stream; (b) transitioning a velocity of the combustion gas stream from subsonic to supersonic in an expansion zone of the pyrolytic reactor; (c) injecting a light hydrocarbon into the supersonic combustion gas stream to create a mixed stream including the light hydrocarbon; (d) transitioning the velocity of the mixed stream from supersonic to subsonic in a reaction zone of the pyrolytic reactor to produce an alkyne; (e) catalytically hydrogenating the alkyne in a hydrogenation zone to produce an alkene; and (f) recycling a stream from the hydrogenation zone, the recyclable stream including carbon monoxide and/or carbon dioxide.
A method for using a network slice, performed by a base station, the method comprising: determining one or more first network slices capable of being supported by the base station; generating first network slice information, wherein the first network slice information is used to characterize each of the first network slices; and transmitting the first network slice information to a terminal, to enable the terminal to determine, according to the first network slice information, each of the first network slices capable of being supported by the base station characterized by, receiving second network slice information transmitted by the terminal, wherein the second network slice information is used to characterize at least one third network slice, and the third network slice is at least one network slice, matching at least one of the first network slices, among one or more second network slices required by the terminal; selecting a corresponding first access and mobility management function AMF for the terminal according to the third network slice, in response to an AMF being required to be selected for the terminal; generating first indication information, wherein the first indication information is used to characterize the first AMF; and transmitting the first indication information to the terminal through a radio resource control RRC setup complete signaling, to enable the terminal to determine the first AMF according to the first indication information. determining one or more first network slices capable of being supported by the base station; generating first network slice information, wherein the first network slice information is used to characterize each of the first network slices; and transmitting the first network slice information to a terminal, to enable the terminal to determine, according to the first network slice information, each of the first network slices capable of being supported by the base station characterized by, receiving second network slice information transmitted by the terminal, wherein the second network slice information is used to characterize at least one third network slice, and the third network slice is at least one network slice, matching at least one of the first network slices, among one or more second network slices required by the terminal; selecting a corresponding first access and mobility management function AMF for the terminal according to the third network slice, in response to an AMF being required to be selected for the terminal; generating first indication information, wherein the first indication information is used to characterize the first AMF; and transmitting the first indication information to the terminal through a radio resource control RRC setup complete signaling, to enable the terminal to determine the first AMF according to the first indication information.
Method for setting the light-emission range of an illumination system for a vehicle between a low beam and a high beam, having the following steps: receiving light expansion information via an interface, wherein the light expansion information indicates a possibility for increasing the light-emission range without glare, ascertaining a travelled path distance of the vehicle in reaction to the receiving of the light expansion information; and determining an expected reduction time point for reducing the light-emission range by utilizing a current traffic situation, providing increase information for increasing the light-emission range or activating the high beam if the travelled path distance is greater than a predetermined minimum distance after receiving the light expansion information, and/or providing at least one increase value for a specific increase of the light-emission range in dependence on the travelled path distance, wherein the increase information and/or the at least one increase value is provided if a predetermined minimum switch-on time period for the increased light-emission range or the high beam lies between the provision time point and the expected reduction time point. receiving light expansion information via an interface, wherein the light expansion information indicates a possibility for increasing the light-emission range without glare, ascertaining a travelled path distance of the vehicle in reaction to the receiving of the light expansion information; and determining an expected reduction time point for reducing the light-emission range by utilizing a current traffic situation, providing increase information for increasing the light-emission range or activating the high beam if the travelled path distance is greater than a predetermined minimum distance after receiving the light expansion information, and/or providing at least one increase value for a specific increase of the light-emission range in dependence on the travelled path distance, wherein the increase information and/or the at least one increase value is provided if a predetermined minimum switch-on time period for the increased light-emission range or the high beam lies between the provision time point and the expected reduction time point.
An amorphous transformer comprising: an amorphous core formed of an amorphous material with a lap provided at an upper portion, wherein the amorphous core is supported by a core support member so that the amorphous core stands in substantially a vertical direction; and a coil which is fitted with the amorphous core, wherein: the core support member comprises a side support member for supporting a side surface of the amorphous core integrated with a corner support member for supporting a corner portion of the amorphous core, the corner support member comprises a plurality of L-shaped support members arranged at predetermined intervals combined with a support plate having a shape which follows a curved surface of the corner portion of the amorphous core, and the amorphous core and the side support member are positioned in the coil. an amorphous core formed of an amorphous material with a lap provided at an upper portion, wherein the amorphous core is supported by a core support member so that the amorphous core stands in substantially a vertical direction; and a coil which is fitted with the amorphous core, wherein: the core support member comprises a side support member for supporting a side surface of the amorphous core integrated with a corner support member for supporting a corner portion of the amorphous core, the corner support member comprises a plurality of L-shaped support members arranged at predetermined intervals combined with a support plate having a shape which follows a curved surface of the corner portion of the amorphous core, and the amorphous core and the side support member are positioned in the coil. the core support member comprises a side support member for supporting a side surface of the amorphous core integrated with a corner support member for supporting a corner portion of the amorphous core, the corner support member comprises a plurality of L-shaped support members arranged at predetermined intervals combined with a support plate having a shape which follows a curved surface of the corner portion of the amorphous core, and the amorphous core and the side support member are positioned in the coil.
A method for characterizing an alternatively or aberrantly spliced isoform of an mRNA, comprising - providing a biological sample comprising said mRNA isoform, - performing flanking exon RT-PCR on each internal exon of said mRNA by using primers that flank each individual internal exon to obtain one or more flanking exon amplification products, and detecting the presence and length of the said flanking exon amplification products, - determining the quantity of transcripts per each protein encoding exon of said mRNA by using RT-qPCR, wherein said alternatively or aberrantly spliced mRNA isoform is characterized based on the presence and/or length of said flanking exon amplification products and from the quantity of transcript of each protein encoding exon, by comparing said flanking exon amplification and RT-qPCR products to a healthy control. - providing a biological sample comprising said mRNA isoform, - performing flanking exon RT-PCR on each internal exon of said mRNA by using primers that flank each individual internal exon to obtain one or more flanking exon amplification products, and detecting the presence and length of the said flanking exon amplification products, - determining the quantity of transcripts per each protein encoding exon of said mRNA by using RT-qPCR, wherein said alternatively or aberrantly spliced mRNA isoform is characterized based on the presence and/or length of said flanking exon amplification products and from the quantity of transcript of each protein encoding exon, by comparing said flanking exon amplification and RT-qPCR products to a healthy control.
A lighting device having a base housing to receive one or more batteries therein to power a light source located in a light housing, the light housing being pivotally attached to said base housing at pivot points on both sides of said base housing, wherein a handle is provided that extends along the axis of rotation between said pivot points and further comprising a light assembly including a printed circuit board having at least one light emitting diode thereon, characterized in that, a generally flat, relatively thin lens extends away from the at least one LED, wherein the at least one LED is arranged so as to emit light into an edge of the lens, and wherein said lens includes at least one recess (26.4, 26.5, 26.6) to receive the at least one LED and the PCB.
An engine reduction gear system, comprising: at least two self-contained, independent engine reduction gearboxes (202a, 202b), each capable of connecting to an aircraft engine (120a, 120b), wherein each of the engine reduction gearboxes (202a, 202b) provides redundant, reduced speed to a main rotor gearbox (114, 208) via a shaft (206a, 206b); wherein each of the self-contained, independent engine reduction gearboxes (202a, 202b) is defined as further comprising: a self-contained lubrication system; an internal oil pump, oil filter, and oil monitoring system; wherein each engine reduction gearbox (202a, 202b) can be independently connected and disconnected from the main rotor gearbox (114, 208); and wherein the two engine reduction gearboxes (202a, 202b) do not provide power to any accessories and characterized in that it further comprises an input gear, an idler gear connected to the input gear, an output gear connected to the idler gear, that control the speed and torque exiting each of the reduction gearboxes and that reduce the speed of rotation from the engine (120a, 120b) prior to entering the main rotor gearbox (114, 208), and supporting bearings. at least two self-contained, independent engine reduction gearboxes (202a, 202b), each capable of connecting to an aircraft engine (120a, 120b), wherein each of the engine reduction gearboxes (202a, 202b) provides redundant, reduced speed to a main rotor gearbox (114, 208) via a shaft (206a, 206b); wherein each of the self-contained, independent engine reduction gearboxes (202a, 202b) is defined as further comprising: a self-contained lubrication system; an internal oil pump, oil filter, and oil monitoring system; wherein each engine reduction gearbox (202a, 202b) can be independently connected and disconnected from the main rotor gearbox (114, 208); and wherein the two engine reduction gearboxes (202a, 202b) do not provide power to any accessories and characterized in that it further comprises an input gear, an idler gear connected to the input gear, an output gear connected to the idler gear, that control the speed and torque exiting each of the reduction gearboxes and that reduce the speed of rotation from the engine (120a, 120b) prior to entering the main rotor gearbox (114, 208), and supporting bearings. a self-contained lubrication system; an internal oil pump, oil filter, and oil monitoring system; wherein each engine reduction gearbox (202a, 202b) can be independently connected and disconnected from the main rotor gearbox (114, 208); and wherein the two engine reduction gearboxes (202a, 202b) do not provide power to any accessories and characterized in that it further comprises an input gear, an idler gear connected to the input gear, an output gear connected to the idler gear, that control the speed and torque exiting each of the reduction gearboxes and that reduce the speed of rotation from the engine (120a, 120b) prior to entering the main rotor gearbox (114, 208), and supporting bearings.
Implantable artificial bronchus, consisting of a tapered cylindrical body having decreasing radius along the body, a nozzle, side wings, side openings and upper and lower openings, wherein: the nozzle is an upper nozzle comprising the upper opening, wherein the upper nozzle is greater in size than the lower opening; and the side openings are along the length of the tapered cylindrical body. the nozzle is an upper nozzle comprising the upper opening, wherein the upper nozzle is greater in size than the lower opening; and the side openings are along the length of the tapered cylindrical body.