mhurhangee/patent-ind-claim-en huggingface dataset:
A mixer configured to mix a fluid, the mixer comprising an inlet channel leading into a plurality of toroidal mixing elements, each toroidal mixing element including a curved fluid path A and a curved fluid path B defining a first toroid, and a curved fluid path C and a curved fluid path D defining a second toroid; wherein an impedance imbalance between fluid path A and fluid path B causes more fluid to enter fluid path A than fluid path B; wherein an impedance imbalance between fluid path C and fluid path D causes more fluid to enter fluid path C than fluid path D; wherein a ratio of impedances between fluid path A and fluid path B is inverted from a ratio of impedances between fluid path C and fluid path D; and wherein an inlet channel leads to the fluid path A and fluid path B, wherein fluid path A and fluid path B are fluidly connected to fluid path C and fluid path D by a neck between the first toroid and the second toroid, characterized in that a neck angle between the inlet channel and the neck is from 110 to 130 degrees, the neck angle being a shortest angle between the inlet channel and the neck. wherein an impedance imbalance between fluid path A and fluid path B causes more fluid to enter fluid path A than fluid path B; wherein an impedance imbalance between fluid path C and fluid path D causes more fluid to enter fluid path C than fluid path D; wherein a ratio of impedances between fluid path A and fluid path B is inverted from a ratio of impedances between fluid path C and fluid path D; and wherein an inlet channel leads to the fluid path A and fluid path B, wherein fluid path A and fluid path B are fluidly connected to fluid path C and fluid path D by a neck between the first toroid and the second toroid, characterized in that a neck angle between the inlet channel and the neck is from 110 to 130 degrees, the neck angle being a shortest angle between the inlet channel and the neck.
A multifunctional shaving system comprising - a handle with an internal channel for passing liquid, having a proximal end and a distal end; - a transition head connectable to the proximal end of the handle with a slot-type channel communicating in a connected state with the channel of the handle ; - a cartridge holder in the form of a floating arm with an internal slot-type channel connectable to the proximal end of the transition head communicating in a connected state with the slot-type channel of the transition head ; and - a removable cartridge , - further comprising an attachment connectable to the proximal end of the handle provided with a head with cleaning members on its outer surface for oral care, the attachment contains a channel communicating in a connected state with the channel of the handle and the outer surface of the head with the cleaning members, wherein the connections between the handle and the transition head , the transition head and the cartridge holder , the handle and the attachment are made detachable using a pin/plug connection, while in the distal end of the handle a socket is provided for inserting a proximal end of an adapter with an internal channel for passing liquid from a liquid source, and the connection between the cartridge and cartridge holder is configured to ensure the possibility of cartridge floating in its holder . - a handle with an internal channel for passing liquid, having a proximal end and a distal end; - a transition head connectable to the proximal end of the handle with a slot-type channel communicating in a connected state with the channel of the handle ; - a cartridge holder in the form of a floating arm with an internal slot-type channel connectable to the proximal end of the transition head communicating in a connected state with the slot-type channel of the transition head ; and - a removable cartridge , - further comprising an attachment connectable to the proximal end of the handle provided with a head with cleaning members on its outer surface for oral care, the attachment contains a channel communicating in a connected state with the channel of the handle and the outer surface of the head with the cleaning members, wherein the connections between the handle and the transition head , the transition head and the cartridge holder , the handle and the attachment are made detachable using a pin/plug connection, while in the distal end of the handle a socket is provided for inserting a proximal end of an adapter with an internal channel for passing liquid from a liquid source, and the connection between the cartridge and cartridge holder is configured to ensure the possibility of cartridge floating in its holder .
Motor vehicle comprising a. an electrically actuatable door closing mechanism , b. a signal receiver for the radio-based reception of an access authorization code from a signal transmitter , and c. at least one control unit for evaluating the received access authorization code and for generating control signals for the door closing mechanism , characterized in that a. a charging device accessible from outside the motor vehicle is present for electrically charging the signal transmitter , and b. the at least one control unit is configured to, in a closed state of the motor vehicle , control the amount of energy transmitted from the vehicle electrical system of the motor vehicle to the signal transmitter via the charging device within the framework of the charging process, wherein the at least one control unit • controls the drawing of electrical energy until the signal transmitter has reached a charge level sufficient to open the motor vehicle , and/or • controls the amount of energy that can be drawn in one charging process and the waiting time between charging processes. a. an electrically actuatable door closing mechanism , b. a signal receiver for the radio-based reception of an access authorization code from a signal transmitter , and c. at least one control unit for evaluating the received access authorization code and for generating control signals for the door closing mechanism , a. a charging device accessible from outside the motor vehicle is present for electrically charging the signal transmitter , and b. the at least one control unit is configured to, in a closed state of the motor vehicle , control the amount of energy transmitted from the vehicle electrical system of the motor vehicle to the signal transmitter via the charging device within the framework of the charging process, wherein the at least one control unit • controls the drawing of electrical energy until the signal transmitter has reached a charge level sufficient to open the motor vehicle , and/or • controls the amount of energy that can be drawn in one charging process and the waiting time between charging processes. • controls the drawing of electrical energy until the signal transmitter has reached a charge level sufficient to open the motor vehicle , and/or • controls the amount of energy that can be drawn in one charging process and the waiting time between charging processes.
Lighting and/or signalling device comprising a plurality of adjacent light sources capable of emitting light rays , a reflector arranged opposite the plurality of light sources and capable of reflecting the light rays emitted by the plurality of light sources and a screen capable of receiving and diffusing the light rays reflected by the reflector , said reflector being shaped to present a single concave reflecting face , extending opposite the plurality of light sources and whose dimensions (L, l, H and R) are adapted to illuminate at least one predefined pattern (61 or 62) on the screen , the plurality of adjacent light sources , the reflector and the screen are housed in a second chamber of a housing , said housing comprises a first chamber housing one or more lighting and/or signalling functions, characterized in that the two chambers (31 ; characterized in that the two chambers (31; 32) are separated by a horizontal partition wall partially closing the two chambers ; characterized in that the two chambers (31; 32) are separated by a horizontal partition partially closing the two chambers (31; 32) and that the upper part of the screen stops inside the housing substantially in the center of the second chamber and below the horizontal partition so as to leave a passage between the partition and the screen , the reflecting face of the reflector has a curvature with a variable radius (R) following a parabolic profile, and in that the reflector is in the form of a sheet obtained by profiling a plastic material; the reflecting face being a layer of light-reflecting material applied to the concave part of the reflector or coloured in the mass.
An air handling system for a climate control system in a housing that comprises at least a delimited space with controlled environment, CE space , in which the CE space has an upstream end and a downstream end (4") with respect to an air flow generated in the CE space by the air handling system, in which the air handling system comprises an air handling unit, AHU, a pipe system and a perforated plate assembly comprising at least a main perforated plate ; wherein the perforated plate assembly is positioned at the upstream end of the CE space as air inlet; the air handling unit, AHU, is arranged in a service space, and is coupled to the perforated plate assembly at the upstream end of the CE space by the pipe system , and the pipe system comprises a branched tree-like structure of conduits, that branches in the direction from the air handling unit towards the perforated plate assembly for homogenous distribution of air over the perforated plate assembly such that the air flow through the perforated plate assembly into the CE space is an air flow under laminar flow conditions, wherein the housing has the size of a shipping container, the perforated area of the main perforated plate is equal to or larger than the cross-section area of the outflow of the branched pipe system , and a cross-section of the perforated plate assembly matches with a cross-section of the CE space .
A light emitting diode (LED) with enhanced light extraction structures, comprising: an LED structure on a substrate comprising: an epitaxially grown p-type layer ; an epitaxially grown n-type layer ; and an epitaxially grown active layer between said p-type and n-type layers ; a first current spreader layer adjacent to said LED structure and said substrate adjacent said first spreader opposite said LED structure; a second current spreader layer adjacent to said LED structure , opposite said first current spreader layer , wherein each of said first and second current spreading layers are a semiconducting or conducting layer that distributes current across the plane of the LED structure so that current is efficiently injected into said active layer ; and light extraction structures disposed integral with said LED and comprise an array of light extraction elements (LEEs) at the interface between said substrate and said first current spreader layer and within said substrate, wherein said light extraction structures provide a spatially varying index of refraction in said LED, said light extraction structures providing surfaces to allow light that would otherwise be trapped within said LED to scatter, reflect and/or refract out of said LED. an LED structure on a substrate comprising: an epitaxially grown p-type layer ; an epitaxially grown n-type layer ; and an epitaxially grown active layer between said p-type and n-type layers ; an epitaxially grown p-type layer ; an epitaxially grown n-type layer ; and an epitaxially grown active layer between said p-type and n-type layers ; a first current spreader layer adjacent to said LED structure and said substrate adjacent said first spreader opposite said LED structure; a second current spreader layer adjacent to said LED structure , opposite said first current spreader layer , wherein each of said first and second current spreading layers are a semiconducting or conducting layer that distributes current across the plane of the LED structure so that current is efficiently injected into said active layer ; and light extraction structures disposed integral with said LED and comprise an array of light extraction elements (LEEs) at the interface between said substrate and said first current spreader layer and within said substrate, wherein said light extraction structures provide a spatially varying index of refraction in said LED, said light extraction structures providing surfaces to allow light that would otherwise be trapped within said LED to scatter, reflect and/or refract out of said LED.
A process for the preparation of Compound X or a salt thereof, or a solvate including hydrate thereof, comprising the step of reacting a compound of formula 22, or a salt thereof, with a compound of formula 2A, or a salt thereof
A header for an agricultural harvester , the header comprising: a header frame with a header floor, an intake auger , rotatably mounted to the header frame , an auger drive shaft , operatively connected to the intake auger for rotating the intake auger , and an intake auger adjustment mechanism comprising a base plate supporting the intake auger and pivotably mounted to the header frame for pivoting around a pivot axis and relative to the header frame to adjust a height of the intake auger relative to the header floor, the pivot axis coinciding with the auger drive shaft , characterised in that the intake auger adjustment mechanism further comprises an actuator configured to pivot the base plate around the pivot axis. a header frame with a header floor, an intake auger , rotatably mounted to the header frame , an auger drive shaft , operatively connected to the intake auger for rotating the intake auger , and an intake auger adjustment mechanism comprising a base plate supporting the intake auger and pivotably mounted to the header frame for pivoting around a pivot axis and relative to the header frame to adjust a height of the intake auger relative to the header floor, the pivot axis coinciding with the auger drive shaft , characterised in that the intake auger adjustment mechanism further comprises an actuator configured to pivot the base plate around the pivot axis.
Safety brake for a drive having an electric motor which has a drive winding to which a drive signal is to be applied, wherein the safety brake has a rectifier , an intermediate circuit and a control device for controlling the safety brake , wherein the intermediate circuit is connected via the rectifier to the drive winding of the electric motor and/or an additional winding of the electric motor , which additional winding is magnetically coupled to the drive winding , and carries an intermediate circuit voltage, wherein the rectifier is designed to generate the intermediate circuit voltage by rectifying a voltage which is dropped across the drive winding and/or across the additional winding of the electric motor , wherein the safety brake is designed to supply the intermediate circuit voltage to the control device via the intermediate circuit , characterized in that the safety brake comprises at least one step-up converter which is arranged between the rectifier and at least one intermediate circuit capacitor of the intermediate circuit and comprises at least one short-circuit switching device , wherein the short-circuit switching device is connected to a DC voltage side of the rectifier such that the DC voltage side can be shortcircuited by means of the short-circuit switching device , and wherein the safety brake is designed such that the short-circuit switching device can be controlled by means of the control device .
A method for use in a user equipment, UE, of managing a listen-before-talk LBT, contention window size, the method comprising: performing a first LBT procedure using a first contention window size and a first priority class for a first uplink transmission in unlicensed spectrum, the first uplink transmission being an acknowledged transmission or an acknowledgeable transmission; transmitting a second uplink transmission in unlicensed spectrum, the second uplink transmission being a transmission for which an acknowledgement is not expected; receiving an acknowledgement for the first uplink transmission; modifying the first contention window size based on the received acknowledgement for the first uplink transmission and the first priority class; modifying a second contention window size based on the received acknowledgement for the first uplink transmission and a second priority class, wherein the second priority class is associated with a second LBT procedure for the second uplink transmission; and performing a third LBT procedure using the second contention window size and the second priority class for a third uplink transmission in unlicensed spectrum, the third uplink transmission being a transmission for which an acknowledgement is not expected. performing a first LBT procedure using a first contention window size and a first priority class for a first uplink transmission in unlicensed spectrum, the first uplink transmission being an acknowledged transmission or an acknowledgeable transmission; transmitting a second uplink transmission in unlicensed spectrum, the second uplink transmission being a transmission for which an acknowledgement is not expected; receiving an acknowledgement for the first uplink transmission; modifying the first contention window size based on the received acknowledgement for the first uplink transmission and the first priority class; modifying a second contention window size based on the received acknowledgement for the first uplink transmission and a second priority class, wherein the second priority class is associated with a second LBT procedure for the second uplink transmission; and performing a third LBT procedure using the second contention window size and the second priority class for a third uplink transmission in unlicensed spectrum, the third uplink transmission being a transmission for which an acknowledgement is not expected.
A method for performing channel state information, CSI, reporting performed by a user equipment, UE , in a wireless communication system, the method comprising: determining information bits of CSI reports #1 to #N configured to be reported, where N is a positive integer; and performing the CSI reporting based on the information bits of the CSI reports #1 to #N, wherein at least one CSI report among the CSI reports #1 to #N includes wideband CSI, and wherein a layer indicator, LI, is included in the wideband CSI of the at least one CSI report. determining information bits of CSI reports #1 to #N configured to be reported, where N is a positive integer; and performing the CSI reporting based on the information bits of the CSI reports #1 to #N, wherein at least one CSI report among the CSI reports #1 to #N includes wideband CSI, and wherein a layer indicator, LI, is included in the wideband CSI of the at least one CSI report.
An optical fiber comprising: a core made of silica based glass containing Cl; a first cladding that surrounds the core, that has a refractive index lower than a refractive index of the core, and that is made of silica based glass containing fluorine; and a second cladding that surrounds the first cladding, that has a refractive index lower than the refractive index of the core and higher than the refractive index of the first cladding, and that is made of silica based glass containing fluorine, wherein the second cladding is divided into an outer region that has a substantially uniform refractive index and an inner region that is located inside of the outer region and that has a refractive index higher than the refractive index of the outer region, wherein a difference (ΔP) between a maximum refractive index of the inner region and the refractive index of the outer region is 0.02% or greater and 0.10% or smaller in terms of relative refractive index with respect to pure silica glass, wherein a radial thickness (R) of the inner region is 10 μm or greater and 25 μm or smaller, wherein the ratio of an outside diameter of the first cladding to an outside diameter of the core is in the range of 3 or greater and 5 or smaller, wherein the ratio of an outside diameter of the optical fiber to the outside diameter of the first cladding is in the range of 2 or greater and 5 or smaller, and wherein the relative refractive index difference between the core and the first cladding is in the range of 0.25% to 0.50%. a core made of silica based glass containing Cl; a first cladding that surrounds the core, that has a refractive index lower than a refractive index of the core, and that is made of silica based glass containing fluorine; and a second cladding that surrounds the first cladding, that has a refractive index lower than the refractive index of the core and higher than the refractive index of the first cladding, and that is made of silica based glass containing fluorine, wherein the second cladding is divided into an outer region that has a substantially uniform refractive index and an inner region that is located inside of the outer region and that has a refractive index higher than the refractive index of the outer region, wherein a difference (ΔP) between a maximum refractive index of the inner region and the refractive index of the outer region is 0.02% or greater and 0.10% or smaller in terms of relative refractive index with respect to pure silica glass, wherein a radial thickness (R) of the inner region is 10 μm or greater and 25 μm or smaller, wherein the ratio of an outside diameter of the first cladding to an outside diameter of the core is in the range of 3 or greater and 5 or smaller, wherein the ratio of an outside diameter of the optical fiber to the outside diameter of the first cladding is in the range of 2 or greater and 5 or smaller, and wherein the relative refractive index difference between the core and the first cladding is in the range of 0.25% to 0.50%.