mhurhangee/ep-ind-claims huggingface dataset:
A method in a UE for communicating in an unlicensed spectrum, the method comprising: receiving, by the UE from a base station, a first configured uplink grant configuration for transmitting data in an unlicensed spectrum and a second configured uplink grant configuration for transmitting data in the unlicensed spectrum; generating, by the UE, a data packet for the first configured uplink grant configuration using a first hybrid automatic repeat request, HARQ, transmission scheme; performing, by the UE for the first configured uplink grant configuration, a first listen-before-talk, LBT, procedure; and in response to determining that the first LBT procedure has failed, identifying, by the UE, an opportunity to transmit the data packet using the second configured uplink grant configuration, and performing, by the UE for the second configured uplink grant configuration, a second LBT procedure; and in response to determining that the second LBT procedure has been successful, transmitting, by the UE to the base station, the data packet using a second HARQ transmission scheme different from the first HARQ transmission scheme via the opportunity in a HARQ retransmission. receiving, by the UE from a base station, a first configured uplink grant configuration for transmitting data in an unlicensed spectrum and a second configured uplink grant configuration for transmitting data in the unlicensed spectrum; generating, by the UE, a data packet for the first configured uplink grant configuration using a first hybrid automatic repeat request, HARQ, transmission scheme; performing, by the UE for the first configured uplink grant configuration, a first listen-before-talk, LBT, procedure; and in response to determining that the first LBT procedure has failed, identifying, by the UE, an opportunity to transmit the data packet using the second configured uplink grant configuration, and performing, by the UE for the second configured uplink grant configuration, a second LBT procedure; and identifying, by the UE, an opportunity to transmit the data packet using the second configured uplink grant configuration, and performing, by the UE for the second configured uplink grant configuration, a second LBT procedure; and in response to determining that the second LBT procedure has been successful, transmitting, by the UE to the base station, the data packet using a second HARQ transmission scheme different from the first HARQ transmission scheme via the opportunity in a HARQ retransmission.
A process for the preparation of 1,3-diethyl 2-(2-methylhydrazinylidene)propanedioate, comprising: reacting 2-halosubstituted diethyl malonate with methylhydrazine or a salt thereof.
A block copolymer comprising: at least one polymeric block of monoalkenyl arene and at least one polymer block of myrcene and having i) a general structure (S-M-Bd)nX being obtainable by a method comprising the steps of (a) introducing into a reactor, a monoalkenyl arene and an organolithium initiator; (b) polymerizing said monoalkenyl arene to form a polymer block of the monoalkenyl arene; introducing myrcene into said reactor; (c) continuing polymerizing myrcene to form a polymer block of myrcene; and (d) introducing between at least one molecule of butadiene per myrcene block up to 3 wt.%, based on the total weight of the block copolymer, of butadiene (Bd) monomer and polymerizing said monomer; and (e) introducing a coupling agent into said reactor to form the coupled block copolymer, or having ii) a general structure (S-M-S')nX or (S-M)nX, where S and S' are polymer blocks of a monoalkenyl arene, M is a polymer block of myrcene, X represents the residue of a couling agent, and n is an integer from 1 to 30; said block copolymer having 50 wt. % or less of the monoalkenyl arene and a melt flow rate of greater than 50 grams/10 min. at 200°C and 5 kg weight according to ASTM D1238and said monoalkenyl arene being selected from the group consisting of styrene, alpha-methylstyrene, methylstyrene, p-tertbutylstyrene, dimethylstyrene and mixtures thereof. (a) introducing into a reactor, a monoalkenyl arene and an organolithium initiator; (b) polymerizing said monoalkenyl arene to form a polymer block of the monoalkenyl arene; introducing myrcene into said reactor; (c) continuing polymerizing myrcene to form a polymer block of myrcene; and (d) introducing between at least one molecule of butadiene per myrcene block up to 3 wt.%, based on the total weight of the block copolymer, of butadiene (Bd) monomer and polymerizing said monomer; and (e) introducing a coupling agent into said reactor to form the coupled block copolymer, or having ii) a general structure (S-M-S')nX or (S-M)nX, where S and S' are polymer blocks of a monoalkenyl arene, M is a polymer block of myrcene, X represents the residue of a couling agent, and n is an integer from 1 to 30; said block copolymer having 50 wt. % or less of the monoalkenyl arene and a melt flow rate of greater than 50 grams/10 min. at 200°C and 5 kg weight according to ASTM D1238and said monoalkenyl arene being selected from the group consisting of styrene, alpha-methylstyrene, methylstyrene, p-tertbutylstyrene, dimethylstyrene and mixtures thereof.
An apparatus for aiding in navigating a device in a network of tubular structures, comprising: an input unit configured to receive a current reference projection image acquired at a first projection direction whilst the device is residing in the network of tubular structures, the projection image showing, when displayed, a footprint of the device; a processing unit configured to use a current in-image position of the footprint and a generic model, i.e. a non patient-specific anatomy description, of the network to retrieve a supplementary projection image (170a, 170i) from a sequence (170a-c) of previously acquired 2D projection images of the same network of tubular structures, the so retrieved supplementary image showing, when displayed, at least a partial footprint of the network, the so retrieved supplementary image affording a view along a second projection direction on the network at a section of interest where the device currently resides, said second view corresponding to an optimised projection direction with respect to a goodness of view standard; a graphics display generator configured to generate for display on a screen a graphics panel including the current projection image and the supplementary projection image, the apparatus configured to update the graphics panel upon receipt of a new projection image at the input unit, the updated panel then including the new projection image and a newly retrieved supplementary projection image (170j-k). an input unit configured to receive a current reference projection image acquired at a first projection direction whilst the device is residing in the network of tubular structures, the projection image showing, when displayed, a footprint of the device; a processing unit configured to use a current in-image position of the footprint and a generic model, i.e. a non patient-specific anatomy description, of the network to retrieve a supplementary projection image (170a, 170i) from a sequence (170a-c) of previously acquired 2D projection images of the same network of tubular structures, the so retrieved supplementary image showing, when displayed, at least a partial footprint of the network, the so retrieved supplementary image affording a view along a second projection direction on the network at a section of interest where the device currently resides, said second view corresponding to an optimised projection direction with respect to a goodness of view standard; a graphics display generator configured to generate for display on a screen a graphics panel including the current projection image and the supplementary projection image, the apparatus configured to update the graphics panel upon receipt of a new projection image at the input unit, the updated panel then including the new projection image and a newly retrieved supplementary projection image (170j-k).
A method for producing a fiber reinforced composite material by impregnating a fiber-reinforced base material with a thermosetting resin (a) and further curing the thermosetting resin (a), the method comprising the following steps to: step: feeding the fiber-reinforced base material and a thermosetting resin base material to a molding mechanism, the thermosetting resin base material including • the thermosetting resin (a), and • a nonwoven fabric-shaped base material or one of the following: o a porous sheet-shaped base material (b), o a film-shaped base material (c), the thermosetting resin (a) having a viscosity of 1,000 Pa·s or more at 40°C, and having a minimum viscosity of 10 Pa·s or less during heating from 30°C at a temperature rise rate of 1.5°C/min; step: supplying the thermosetting resin (a) from the thermosetting resin base material to the fiber-reinforced base material by pressurization with the molding mechanism to impregnate the fiber-reinforced base material with the thermosetting resin (a); and step: curing the thermosetting resin (a) by heating with the molding mechanism; wherein in step, the thermosetting resin base material is fed to the molding mechanism with at least one side surface of the thermosetting resin base material being sealed with the fiber-reinforced base material. step: feeding the fiber-reinforced base material and a thermosetting resin base material to a molding mechanism, the thermosetting resin base material including • the thermosetting resin (a), and • a nonwoven fabric-shaped base material or one of the following: o a porous sheet-shaped base material (b), o a film-shaped base material (c), • the thermosetting resin (a), and • a nonwoven fabric-shaped base material or one of the following: o a porous sheet-shaped base material (b), o a film-shaped base material (c), o a porous sheet-shaped base material (b), o a film-shaped base material (c), the thermosetting resin (a) having a viscosity of 1,000 Pa·s or more at 40°C, and having a minimum viscosity of 10 Pa·s or less during heating from 30°C at a temperature rise rate of 1.5°C/min; step: supplying the thermosetting resin (a) from the thermosetting resin base material to the fiber-reinforced base material by pressurization with the molding mechanism to impregnate the fiber-reinforced base material with the thermosetting resin (a); and step: curing the thermosetting resin (a) by heating with the molding mechanism; wherein in step, the thermosetting resin base material is fed to the molding mechanism with at least one side surface of the thermosetting resin base material being sealed with the fiber-reinforced base material.
A method for controlling a welder with a consumable electrode, wherein the values of the welding parameters required for a welding process are stored in a memory device and saved in the form of so-called characteristic curves by at least one support point per characteristic curve, characterized in that a working point is adjusted by a value for the heat input (Pw) into a workpiece and a value for the wire feed speed (vd), wherein, when adapting one of these values to a welding application, the other value is kept constant by a calculation method, and the calculation method is designed such that several characteristic curves which are compatible with one another are each combined to a characteristic curve field per welding process, and that the welding parameters of all support points of the characteristic curves of the characteristic curve fields are stored according to defined values of specific welding parameters.
A method performed by a transmitting node, comprising: scheduling a downlink transmission to a first user equipment, UE, according to a 5G radio access technology, RAT, over a first transmission interval having a predetermined length, wherein the first transmission interval comprises two or more subintervals of a predetermined, fixed duration; wherein the scheduling comprises sending a scheduling assignment to the first user equipment for the data transmission; starting the downlink transmission to the first UE in the first transmission interval; stopping the downlink transmission to the first UE prior to an end of the first transmission interval to create a first end of a transmission hole in the downlink transmission to the first UE; resuming the downlink transmission to the first UE at a second end of the transmission hole; and receiving an uplink transmission from a second UE, within the transmission hole according to the 5G RAT or transmitting a higher priority downlink transmission to the second UE in the transmission hole according to the 5G RAT. scheduling a downlink transmission to a first user equipment, UE, according to a 5G radio access technology, RAT, over a first transmission interval having a predetermined length, wherein the first transmission interval comprises two or more subintervals of a predetermined, fixed duration; wherein the scheduling comprises sending a scheduling assignment to the first user equipment for the data transmission; starting the downlink transmission to the first UE in the first transmission interval; stopping the downlink transmission to the first UE prior to an end of the first transmission interval to create a first end of a transmission hole in the downlink transmission to the first UE; resuming the downlink transmission to the first UE at a second end of the transmission hole; and receiving an uplink transmission from a second UE, within the transmission hole according to the 5G RAT or transmitting a higher priority downlink transmission to the second UE in the transmission hole according to the 5G RAT.
Rotatory position measuring device, having - a light source (10; 100; 1000), - a graduated disc with a rotationally symmetric, reflective material measure (20; 200; 2000) and - an optoelectronic detector arrangement (30; 300; 3000), wherein - the graduated disc is rotatable about an axis of rotation in relation to the light source (10; 100; 1000) and the detector arrangement such that, in the case of the relative rotation, rotational-angle-dependent position signals are capturable by way of the detector arrangement (30; 300; 3000) and wherein - the light source (10; 100; 1000) is arranged on the axis of rotation in a manner spaced apart from the material measure (20; 200; 2000) at a first distance (u) and - the detector arrangement (30; 300; 3000) is arranged at a second distance (v) from the material measure (20; 200; 2000), said second distance differing from the first distance (u), and wherein - the graduated disc comprises optical means which have such an optical power that imaging of the light source (10; 100; 1000) results at a position which has a third distance (u') from the material measure (20; 200; 2000), wherein, in terms of magnitude, the third distance (u') differs from the first distance (u) and wherein the optical means on the graduated disc have an optical power which corresponds to the optical power of a concave mirror or of a convex mirror with a defined focal length (f). - a light source (10; 100; 1000), - a graduated disc with a rotationally symmetric, reflective material measure (20; 200; 2000) and - an optoelectronic detector arrangement (30; 300; 3000), wherein - the graduated disc is rotatable about an axis of rotation in relation to the light source (10; 100; 1000) and the detector arrangement such that, in the case of the relative rotation, rotational-angle-dependent position signals are capturable by way of the detector arrangement (30; 300; 3000) and wherein - the light source (10; 100; 1000) is arranged on the axis of rotation in a manner spaced apart from the material measure (20; 200; 2000) at a first distance (u) and - the detector arrangement (30; 300; 3000) is arranged at a second distance (v) from the material measure (20; 200; 2000), said second distance differing from the first distance (u), and wherein - the graduated disc comprises optical means which have such an optical power that imaging of the light source (10; 100; 1000) results at a position which has a third distance (u') from the material measure (20; 200; 2000), wherein, in terms of magnitude, the third distance (u') differs from the first distance (u) and wherein the optical means on the graduated disc have an optical power which corresponds to the optical power of a concave mirror or of a convex mirror with a defined focal length (f).
Apparatus for dispensing foamed or non-foamed milk with different foaming values, through suction of air from the outside and suction of milk from a container, comprising a container for the milk, an air intake open towards the outside, a suction pump, an electric motor for actuating it, a first duct connecting said air intake with said suction pump, a second duct dipping into said container for the milk and joined to said first duct upstream of the point at which said first duct is connected to said pump, a third duct connected to the delivery of the pump and ending with a milk dispensing point, a central processing unit for controlling, based on a predetermined programme, the operating parameters at least of the electric motor of said pump, a continuous flow rate regulator inserted into said first duct between the air intake and the point at which said second duct joins to the first, said continuous flow rate regulator having the relative actuator member connected to said central processing unit to control it; characterised in that it comprises a flow measuring sensor inserted in said first duct coming from the air intake, in the section comprised between said continuous flow rate regulator and the point at which said second duct joins with said first duct, said flow measuring sensor being connected to said controlling central processing unit to send the measured flow values to it.
Process for the preparation of a sugar product from lignocellulosic material, comprising the following steps: a) optionally, pre-treatment of the lignocellulosic material, b) optionally, washing of the optionally pre-treated lignocellulosic material, c) enzymatic hydrolysis of the optionally washed and/or optionally pre-treated lignocellulosic material using an enzyme composition comprising at least two cellulases and whereby the enzyme composition at least comprises GH61, d) whereby between 0.1 and 7.5 mg enzyme composition/g glucan (on dry matter and enzyme as protein) or between 0.05 and 3.0 mg enzyme composition/g feedstock (on dry matter and enzyme as protein) is used, and e) optionally, recovery of the sugar product, wherein during the enzymatic hydrolysis step (c) oxygen is added to the lignocellulosic material, the reactor for the enzymatic hydrolysis has a volume of 1 m 3 or more and the dry matter content in the hydrolysis step (c) is 10 wt% or more. a) optionally, pre-treatment of the lignocellulosic material, b) optionally, washing of the optionally pre-treated lignocellulosic material, c) enzymatic hydrolysis of the optionally washed and/or optionally pre-treated lignocellulosic material using an enzyme composition comprising at least two cellulases and whereby the enzyme composition at least comprises GH61, d) whereby between 0.1 and 7.5 mg enzyme composition/g glucan (on dry matter and enzyme as protein) or between 0.05 and 3.0 mg enzyme composition/g feedstock (on dry matter and enzyme as protein) is used, and e) optionally, recovery of the sugar product,
A method for provisioning a Diameter binding repository, the method comprising: receiving, at a Diameter signaling routing node, DSR, a Diameter signaling message that is associated with a mobile subscriber and includes mobile subscriber related information; selecting, by the DSR, a network service node from a plurality of network service nodes configured to process the Diameter signaling message; querying, by the DSR, a subscriber data management, SDM, node using the mobile subscriber related information to obtain additional information associated with the mobile subscriber; generating, by the DSR, Diameter binding record information using the mobile subscriber related information, the additional information, and an identifier corresponding to the selected network service node; and sending, by the DSR, a provisioning message including the Diameter binding record information to a Diameter binding repository, DBR,, updating, by the DBR, an existing Diameter binding record with data in the received Diameter binding record information. receiving, at a Diameter signaling routing node, DSR, a Diameter signaling message that is associated with a mobile subscriber and includes mobile subscriber related information; selecting, by the DSR, a network service node from a plurality of network service nodes configured to process the Diameter signaling message; querying, by the DSR, a subscriber data management, SDM, node using the mobile subscriber related information to obtain additional information associated with the mobile subscriber; generating, by the DSR, Diameter binding record information using the mobile subscriber related information, the additional information, and an identifier corresponding to the selected network service node; and sending, by the DSR, a provisioning message including the Diameter binding record information to a Diameter binding repository, DBR,, updating, by the DBR, an existing Diameter binding record with data in the received Diameter binding record information.