mhurhangee/ep-ind-claims huggingface dataset:
A tool adapter for attaching tools to a rotary tool, the tool adapter comprising: a body including at least one elongated portion defining a longitudinal axis, a first end and a second end disposed along the longitudinal axis, a flange disposed between the first and second ends (310, 312) along the longitudinal axis, and an exterior surface extending along the longitudinal axis; and wherein the flange divides the body into a tool retaining portion disposed between the first end and the flange, and a tool adapter attaching portion disposed between the second end and the flange, and the body defines a tool receiving bore extending from the first end toward the second end along the longitudinal axis and the tool retaining portion includes a collar portion defining a collar outer surface and the body defines a first groove disposed adjacent the first end extending along the longitudinal axis on the outer collar surface along the majority of the longitudinal length of the collar portion, the first groove being spaced away from the first end. a body including at least one elongated portion defining a longitudinal axis, a first end and a second end disposed along the longitudinal axis, a flange disposed between the first and second ends (310, 312) along the longitudinal axis, and an exterior surface extending along the longitudinal axis; and wherein the flange divides the body into a tool retaining portion disposed between the first end and the flange, and a tool adapter attaching portion disposed between the second end and the flange, and the body defines a tool receiving bore extending from the first end toward the second end along the longitudinal axis and the tool retaining portion includes a collar portion defining a collar outer surface and the body defines a first groove disposed adjacent the first end extending along the longitudinal axis on the outer collar surface along the majority of the longitudinal length of the collar portion, the first groove being spaced away from the first end.
A method for processing a crude oil feedstock having total Ni and V metals content of less than 5 ppm and Conradson carbon residue of less than 5 wt% comprising: fractionating the feedstock into a low boiling fraction and a high boiling fraction to produce the high boiling fraction having less than 10 wt% Conradson Carbon and less than 10 ppm total Ni and V metals; cracking the low boiling fraction in a first downflow reaction zone of a fluid catalytic cracking unit in the presence of a predetermined amount of catalyst to produce a first cracked product stream and spent catalyst; cracking the high boiling fraction in a second downflow reaction zone of the fluid catalytic cracking unit in the presence of a predetermined amount of catalyst to produce a second cracked product stream and spent catalyst; wherein each of the first and second downflow reaction zones includes a mixing zone, a separation zone and a catalyst-stripping zone, and regenerating spent catalyst from both the first and second downflow reaction zones in a common regeneration zone and recycling the regenerated catalyst back to the first and second downflow reaction zones; and recovering the first and second cracked product streams, wherein heat formed by combustion of coke formed on catalyst particles having increased coke formation from the high boiling fraction reaction zone overcomes limitations associated with reduced coke formation on catalyst particles from the low boiling fraction reaction zone. fractionating the feedstock into a low boiling fraction and a high boiling fraction to produce the high boiling fraction having less than 10 wt% Conradson Carbon and less than 10 ppm total Ni and V metals; cracking the low boiling fraction in a first downflow reaction zone of a fluid catalytic cracking unit in the presence of a predetermined amount of catalyst to produce a first cracked product stream and spent catalyst; cracking the high boiling fraction in a second downflow reaction zone of the fluid catalytic cracking unit in the presence of a predetermined amount of catalyst to produce a second cracked product stream and spent catalyst; wherein each of the first and second downflow reaction zones includes a mixing zone, a separation zone and a catalyst-stripping zone, and regenerating spent catalyst from both the first and second downflow reaction zones in a common regeneration zone and recycling the regenerated catalyst back to the first and second downflow reaction zones; and recovering the first and second cracked product streams, wherein heat formed by combustion of coke formed on catalyst particles having increased coke formation from the high boiling fraction reaction zone overcomes limitations associated with reduced coke formation on catalyst particles from the low boiling fraction reaction zone.
A performance characteristic material adapted for use with body gear, comprising: a base material having a transfer property that is adapted to allow, impede, and/or restrict passage of a natural element through the base material; a first array of first performance characteristic elements disposed on the base material in a first zone, the first performance characteristic elements being adapted to perform a first function, wherein the first function comprises directing heat, absorbing heat, emitting heat, wicking moisture or a combination thereof; characterized in that the performance characteristic material further comprises a second array of second performance characteristic elements disposed on the base material in a second zone, the second performance characteristic elements being adapted to perform a second function, wherein the second function is wicking moisture; wherein the first function is different from the second function, and wherein the placement and spacing of the first and second performance characteristic elements enables the base material to perform the transfer property. a base material having a transfer property that is adapted to allow, impede, and/or restrict passage of a natural element through the base material; a first array of first performance characteristic elements disposed on the base material in a first zone, the first performance characteristic elements being adapted to perform a first function, wherein the first function comprises directing heat, absorbing heat, emitting heat, wicking moisture or a combination thereof; characterized in that the performance characteristic material further comprises a second array of second performance characteristic elements disposed on the base material in a second zone, the second performance characteristic elements being adapted to perform a second function, wherein the second function is wicking moisture; wherein the first function is different from the second function, and wherein the placement and spacing of the first and second performance characteristic elements enables the base material to perform the transfer property.
Radial turbocompressor having at least two compressor stages, wherein a motor drives radial impellers of the compressor stages which are arranged on a shaft, wherein the motor and the compressor stages are arranged in a common housing and a medium enters the housing through an intake opening, wherein a discharge opening for the medium is arranged centrally in the axial direction with respect to the axis of rotation of the shaft, wherein radial bearings and axial bearings are arranged on the shaft between the motor and the radial impellers, wherein the medium flows through the radial bearings and axial bearings, and wherein the uncompressed medium is split into two partial flows (3, 4), wherein a first partial flow flows past the motor and a second partial flow is fed through the motor, in particular through the gap between the rotor and the stator, wherein the two partial flows (3, 4) are united before entering the first compressor stage, where the medium is compressed and exits the housing through the discharge opening.
A method, comprising: (a) a User Equipment, in the following referred to as UE, receives an extended DRX configuration from the network; (b) the UE receives a Hyper Frame Count in transmissions from an eNB in a Cell; and (c) the UE determines a set of points and durations in time when the UE is required to be awake to be able to receive Downlink transmission in the Cell, by applying the extended DRX configuration with the Hyper Frame Count in the Cell, wherein the UE selects a hyper-frame for which there are points and durations in time when the UE is required to be awake to be able to receive Downlink transmission in the Cell, and wherein the hyper-frame includes a predefined number of system frames, characterized in that the selected hyper-frame number satisfies "N mod TeDRX = UE_ID mod TeDRX", and wherein the N is the selected hyper-frame number, the TeDRX is an extended DRX cycle of the UE, and the UE_ID is a UE identity, wherein the UE, within a selected hyper-frame, applies the UE identity and an International Mobile Subscriber Identity (IMSI) to determine points and durations in time when the UE is required to be awake to be able to receive Downlink transmission in the Cell (402, 404). (a) a User Equipment, in the following referred to as UE, receives an extended DRX configuration from the network; (b) the UE receives a Hyper Frame Count in transmissions from an eNB in a Cell; and (c) the UE determines a set of points and durations in time when the UE is required to be awake to be able to receive Downlink transmission in the Cell, by applying the extended DRX configuration with the Hyper Frame Count in the Cell, wherein the UE selects a hyper-frame for which there are points and durations in time when the UE is required to be awake to be able to receive Downlink transmission in the Cell, and wherein the hyper-frame includes a predefined number of system frames,
A device for vibration decoupling, comprising a pulley for accommodating a belt, a drive shaft rotating the pulley, and a coupling device that connects the pulley with the drive shaft, wherein the coupling device has a freewheel member and an elastomeric spring body connected in series, wherein counterfaces (5, 6) are associated with the freewheel member, a first counterface facing towards the pulley and a second counterface facing towards the elastomeric spring body, characterised in that at least one counterface (5, 6) is formed on an insert (5a, 6a), wherein at least one insert (5a, 6a) carries a radial shaft sealing ring or is a component of a radial shaft sealing ring.
A display apparatus, comprising: a plurality of pixels, PX; and a light emitting device, ED, on each of the plurality of pixels, wherein the light emitting device includes a bottom surface and a top surface, a first semiconductor layer, SL1, an active layer, ACT, and a second semiconductor layer, SL2, that are sequentially stacked on the bottom surface, BS, and a sidewall, SW, wherein the bottom surface and the top surface is a polar plane, the sidewall includes a first facet, FA1, and a second facet, FA2, adjacent to the first facet, the first facet is a semi-polar (n -n 0 k) plane, each of n and k is an integer equal to or greater than 1, the second facet is a non-polar crystal plane having a Miller index different from that of the first facet, a first angle is made between the bottom surface and the first facet, a second angle is made between the bottom surface and the second facet, the first angle is different from the second angle, the first facet and the second facet meet each other to define an edge, and the edge extends from the bottom surface toward the top surface. a plurality of pixels, PX; and a light emitting device, ED, on each of the plurality of pixels, wherein the light emitting device includes a bottom surface and a top surface, a first semiconductor layer, SL1, an active layer, ACT, and a second semiconductor layer, SL2, that are sequentially stacked on the bottom surface, BS, and a sidewall, SW, wherein the bottom surface and the top surface is a polar plane, the sidewall includes a first facet, FA1, and a second facet, FA2, adjacent to the first facet, the first facet is a semi-polar (n -n 0 k) plane, each of n and k is an integer equal to or greater than 1, the second facet is a non-polar crystal plane having a Miller index different from that of the first facet, a first angle is made between the bottom surface and the first facet, a second angle is made between the bottom surface and the second facet, the first angle is different from the second angle, the first facet and the second facet meet each other to define an edge, and the edge extends from the bottom surface toward the top surface.
Method of transmitting a message, between sender and one or more recipients, the method including the following steps: - defining said message to be transmitted by said sender to at least one recipient; - sending said message in the form of a digital file to a receiving module of a service provider; - archiving said message in a database; - assigning a code to said message, where said code is the position of said message in said database and contains a command to initiate an authorization request procedure; - coding said code into a sound signal in an audio file; - returning said sound signal to said sender; - entrusting the sound signal to a transmission system suitable for broadcasting, for example radio or television, and diffusion of said sound signal through a transmission channel; - receiving said sound signal by a detector of an electronic device in use by said receiver, wherein a specific application is installed on said electronic device; - decoding said sound signal to obtain said code, wherein said decoding is performed by said application, which activates the service provider authorization request procedure; - communicating between said application and said service provider, where said service provider receives from said application said code and checks authorization request to prevent access to unverified or unauthorized content; - returning said message corresponding to said code; - displaying said message on said device said recipient. - defining said message to be transmitted by said sender to at least one recipient; - sending said message in the form of a digital file to a receiving module of a service provider; - archiving said message in a database; - assigning a code to said message, where said code is the position of said message in said database and contains a command to initiate an authorization request procedure; - coding said code into a sound signal in an audio file; - returning said sound signal to said sender; - entrusting the sound signal to a transmission system suitable for broadcasting, for example radio or television, and diffusion of said sound signal through a transmission channel; - receiving said sound signal by a detector of an electronic device in use by said receiver, wherein a specific application is installed on said electronic device; - decoding said sound signal to obtain said code, wherein said decoding is performed by said application, which activates the service provider authorization request procedure; - communicating between said application and said service provider, where said service provider receives from said application said code and checks authorization request to prevent access to unverified or unauthorized content; - returning said message corresponding to said code; - displaying said message on said device said recipient.
A nonaqueous cell, comprising positive electrode, a negative electrode, a nonaqueous electrolytic solution and a separator, characterised in that the separator comprises a fiber sheet comprising a polyvinyl alcohol fiber having a fiber breaking temperature in heated water of lower than 100°C and higher than 85°C in a proportion of 30% or more by mass, based on the fiber sheet, wherein the fiber breaking temperature is measured by connecting a weight giving a load of 8.8mN/500 dtex (0.9 gf/500 dtex) to a polyvinyl alcohol fiber having a test length of 5 cm, hanging the weighted fiber in 500 cm 3 (500 cc) of 20°C water, then increasing the water temperature at a rate of 1°C/minute until the weighted fiber breaks, wherein the fiber breaking temperature is the temperature of the water when the weighted fiber breaks.
A gas turbine engine (20; 62) comprising: a core engine configured to rotate an output shaft (40; 50), and compress and communicate the airflow from a core flow path into a combustor section for expansion through a turbine section; and a case comprising: a radially outer ring and a radially inner ring connected by a plurality of circumferentially spaced apart struts and defining an annular flow path therebetween; the radially inner ring including a radial ring flange extending in a radial direction from the radially inner ring; characterized in a heat shield attached to the radial ring flange, the heat shield comprising a radial heat shield flange extending in a circumferential direction forming a ring, and a plurality of guide pins, the heat shield comprises a plurality of bosses extending from a first axial side of the radial heat shield flange, wherein one or more of the plurality of guide pins extends from a corresponding one or more of the plurality of bosses and each of the plurality of guide pins are located axially downstream of the radial ring flange and on an opposite side of the radial heat shield flange from the radial ring flange, and the heat shield further comprises a conical portion extending radially inward from a radially inner edge of the radial heat shield flange. a core engine configured to rotate an output shaft (40; 50), and compress and communicate the airflow from a core flow path into a combustor section for expansion through a turbine section; and a case comprising: a radially outer ring and a radially inner ring connected by a plurality of circumferentially spaced apart struts and defining an annular flow path therebetween; the radially inner ring including a radial ring flange extending in a radial direction from the radially inner ring; characterized in a heat shield attached to the radial ring flange, the heat shield comprising a radial heat shield flange extending in a circumferential direction forming a ring, and a plurality of guide pins, a radially outer ring and a radially inner ring connected by a plurality of circumferentially spaced apart struts and defining an annular flow path therebetween; the radially inner ring including a radial ring flange extending in a radial direction from the radially inner ring; characterized in a heat shield attached to the radial ring flange, the heat shield comprising a radial heat shield flange extending in a circumferential direction forming a ring, and a plurality of guide pins, the heat shield comprises a plurality of bosses extending from a first axial side of the radial heat shield flange, wherein one or more of the plurality of guide pins extends from a corresponding one or more of the plurality of bosses and each of the plurality of guide pins are located axially downstream of the radial ring flange and on an opposite side of the radial heat shield flange from the radial ring flange, and the heat shield further comprises a conical portion extending radially inward from a radially inner edge of the radial heat shield flange.
A wind turbine comprising: one or more rotor blades; a pitch actuator system for adjusting the pitch angle of the one or more wind turbine rotor blades; a generator; a wind sensor for detecting the incident wind speed at least at a first position that is a predetermined distance in front of the one or more rotor blades; and a controller coupled to the wind sensor for providing an output control signal for the wind turbine, wherein the controller in a rolling manner is arranged to repeatedly perform the steps: a) receive values from the wind sensor of the incident wind speed at the predetermined distance in front of the wind turbine; b) generate a time series representation of the incident wind speed for a future time period; c) postulate a time series of values for an output control signal for a future time period; d) optimise the time series of values for the output control signal based on minimising a cost function, wherein the cost function includes terms defining aspects of the operation of the wind turbine; e) output a control signal based on the time series of values optimised in step d), the control signal being the immediate value in the time series of the control signal. one or more rotor blades; a pitch actuator system for adjusting the pitch angle of the one or more wind turbine rotor blades; a generator; a wind sensor for detecting the incident wind speed at least at a first position that is a predetermined distance in front of the one or more rotor blades; and a controller coupled to the wind sensor for providing an output control signal for the wind turbine, wherein the controller in a rolling manner is arranged to repeatedly perform the steps: a) receive values from the wind sensor of the incident wind speed at the predetermined distance in front of the wind turbine; b) generate a time series representation of the incident wind speed for a future time period; c) postulate a time series of values for an output control signal for a future time period; d) optimise the time series of values for the output control signal based on minimising a cost function, wherein the cost function includes terms defining aspects of the operation of the wind turbine; e) output a control signal based on the time series of values optimised in step d), the control signal being the immediate value in the time series of the control signal. a) receive values from the wind sensor of the incident wind speed at the predetermined distance in front of the wind turbine; b) generate a time series representation of the incident wind speed for a future time period; c) postulate a time series of values for an output control signal for a future time period; d) optimise the time series of values for the output control signal based on minimising a cost function, wherein the cost function includes terms defining aspects of the operation of the wind turbine; e) output a control signal based on the time series of values optimised in step d), the control signal being the immediate value in the time series of the control signal.