mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for transmitting data in a wireless communication network, the apparatus comprising: a real modulation branch for modulating a first segment of a bit sequence to obtain a real modulated signal; a complex modulation branch for modulating a second segment of the bit sequence to obtain a complex modulated signal; a signal dividing unit configured to divide the bit sequence into a plurality of alternating first segments and second segments, and to send the first segments and the second segments to the real modulation branch and the complex modulation branch respectively; and a transmitter configured to transmit the real and complex modulated signals. a real modulation branch for modulating a first segment of a bit sequence to obtain a real modulated signal; a complex modulation branch for modulating a second segment of the bit sequence to obtain a complex modulated signal; a signal dividing unit configured to divide the bit sequence into a plurality of alternating first segments and second segments, and to send the first segments and the second segments to the real modulation branch and the complex modulation branch respectively; and a transmitter configured to transmit the real and complex modulated signals.
Electromagnetically compensating beam scale, comprising a two-armed, rotatably mounted transmission lever , each lever arm of which is coupled to an associated load receiver (70a,b) and which has, at least on one side, an actuator (20a,b; 21a,b) integrated in a closed control loop, wherein each load receiver (70a,b) will be or is guided linearly in the vertical direction by means of a lever mechanism, characterized in that the lever mechanism is in each case embodied as a parallel crank comprising an upper parallel link fixed to the frame and connected in an articulated manner via a coupling element (50a,b), a lower parallel link , the load receiver and an upper parallel link , a lower parallel link and the load receiver .
A computer-implemented method for creating an electronically formatted medical image report with an image annotation, comprising: receiving a medical input image, of a patient, to be annotated comparing the medical input image with a set of previously annotated medical images to determine similarities between the medical input image and each image in the set of previously annotated medical images; identifying, for each of a plurality of predetermined annotations, based on the determined similarities, from the set of previously annotated medical images the image with said each predetermined annotation and with the greatest similarity to the medical input image; visually displaying, for each of the plurality of predetermined annotations, the identified image for said each predetermined annotation along with said each predetermined annotation; receiving an input signal identifying one of the displayed images and the displayed predetermined annotations; annotating the medical input image with the displayed image identified by the input signal; and generating, in an electronic format, a report for the medical input image that includes the displayed annotation identified by the input signal. receiving a medical input image, of a patient, to be annotated comparing the medical input image with a set of previously annotated medical images to determine similarities between the medical input image and each image in the set of previously annotated medical images; identifying, for each of a plurality of predetermined annotations, based on the determined similarities, from the set of previously annotated medical images the image with said each predetermined annotation and with the greatest similarity to the medical input image; visually displaying, for each of the plurality of predetermined annotations, the identified image for said each predetermined annotation along with said each predetermined annotation; receiving an input signal identifying one of the displayed images and the displayed predetermined annotations; annotating the medical input image with the displayed image identified by the input signal; and generating, in an electronic format, a report for the medical input image that includes the displayed annotation identified by the input signal.
A hollow spring, comprising a steel tube which is bent into a predetermined shape and heat treated in advance, characterized in that the average of surface roughness is smaller than 10 μm across the entire inner surface of the steel tube and compressive residual stress is given to the entire inner surface of the steel tube. a steel tube which is bent into a predetermined shape and heat treated in advance, characterized in that the average of surface roughness is smaller than 10 μm across the entire inner surface of the steel tube and compressive residual stress is given to the entire inner surface of the steel tube.
A user equipment, UE, comprising : a receiver, which in operation, receives a downlink control channel of an unlicensed radio cell for information intended to the UE, the unlicensed radio cell operating in an unlicensed spectrum and being controlled by a base station that is in communication with the UE; and processing circuitry, which in operation, operates monitoring of the downlink control channel, using a first timer and a second timer operated in parallel, wherein the first timer limits the maximum time for monitoring the downlink control channel, by starting the first timer at the beginning of the monitoring of the downlink control channel and stopping the monitoring of the downlink control channel upon expiry of the first timer, wherein the second timer stops the monitoring of the downlink control channel after detecting the channel occupation status of the unlicensed spectrum of the radio cell by the base station, and stops the monitoring of the downlink control channel earlier than the first timer. a receiver, which in operation, receives a downlink control channel of an unlicensed radio cell for information intended to the UE, the unlicensed radio cell operating in an unlicensed spectrum and being controlled by a base station that is in communication with the UE; and processing circuitry, which in operation, operates monitoring of the downlink control channel, using a first timer and a second timer operated in parallel, wherein the first timer limits the maximum time for monitoring the downlink control channel, by starting the first timer at the beginning of the monitoring of the downlink control channel and stopping the monitoring of the downlink control channel upon expiry of the first timer, wherein the second timer stops the monitoring of the downlink control channel after detecting the channel occupation status of the unlicensed spectrum of the radio cell by the base station, and stops the monitoring of the downlink control channel earlier than the first timer.
A computer-implemented method for transparently optimizing data transmission between a first endpoint (A) and a second endpoint (B) in a computer network, the endpoints (A, B) having a directly established data session (S) therebetween, the data session being identified by each endpoint at least to itself in the same way throughout the session, the method comprising: relaying application level data between the endpoints (A, B) transparently in the session using a network optimization service (C), wherein the step of relaying data includes creating a first transparent endpoint (C a ) facing the first endpoint (A), wherein first transparent endpoint (C a ) appears to the first endpoint (A) as the second endpoint (B), such that the first endpoint (A) communicates with the first transparent endpoint (C a ); and transparently modifying parameters of at least some of the application level data transmitted from the second endpoint (B) to the first endpoint (A) using the network optimization service (C) to modify a capability to receive a response in a compressed format reported by the first endpoint (A) to cause the second endpoint (B) to transmit a response in a compressed format and modifying a compressed response from the second endpoint (B) to the first endpoint (A) by decompressing the response in order to optimize data communications between the endpoints (A, B), wherein transparently modifying at least some of the application level data further comprises changing the application level data, replacing the application level data, or inserting additional application level data such that the first endpoint (A) receives different application level data than was sent by the second endpoint (B). relaying application level data between the endpoints (A, B) transparently in the session using a network optimization service (C), wherein the step of relaying data includes creating a first transparent endpoint (C a ) facing the first endpoint (A), wherein first transparent endpoint (C a ) appears to the first endpoint (A) as the second endpoint (B), such that the first endpoint (A) communicates with the first transparent endpoint (C a ); and transparently modifying parameters of at least some of the application level data transmitted from the second endpoint (B) to the first endpoint (A) using the network optimization service (C) to modify a capability to receive a response in a compressed format reported by the first endpoint (A) to cause the second endpoint (B) to transmit a response in a compressed format and modifying a compressed response from the second endpoint (B) to the first endpoint (A) by decompressing the response in order to optimize data communications between the endpoints (A, B), wherein transparently modifying at least some of the application level data further comprises changing the application level data, replacing the application level data, or inserting additional application level data such that the first endpoint (A) receives different application level data than was sent by the second endpoint (B).
A braking circuit for a motor, comprising: an arrangement of power cells electrically connected to receive power from a source comprising a three phase supply and deliver power to a motor through a single phase output, the arrangement comprising: a first rank of single-phase regenerative power cells (251-253, 271-273) which have the capability of absorbing regenerative power; and a second rank of single-phase non-regenerative power cells (261-263, 281-283) which do not have the capability of absorbing regenerative power; wherein the second rank of single-phase non-regenerative power cells is connected in series with the first rank of single-phase regenerative power cells; and wherein the braking circuit further comprises a control circuit connected to the arrangement of power cells, wherein the control circuit is configured to generate pulse width modulation voltage commands for controlling the single-phase regenerative power cells and the single-phase non-regenerative power cells. an arrangement of power cells electrically connected to receive power from a source comprising a three phase supply and deliver power to a motor through a single phase output, the arrangement comprising: a first rank of single-phase regenerative power cells (251-253, 271-273) which have the capability of absorbing regenerative power; and a second rank of single-phase non-regenerative power cells (261-263, 281-283) which do not have the capability of absorbing regenerative power; a first rank of single-phase regenerative power cells (251-253, 271-273) which have the capability of absorbing regenerative power; and a second rank of single-phase non-regenerative power cells (261-263, 281-283) which do not have the capability of absorbing regenerative power; wherein the second rank of single-phase non-regenerative power cells is connected in series with the first rank of single-phase regenerative power cells; and wherein the braking circuit further comprises a control circuit connected to the arrangement of power cells, wherein the control circuit is configured to generate pulse width modulation voltage commands for controlling the single-phase regenerative power cells and the single-phase non-regenerative power cells.
Modified tumor-derived extracellular vesicles (EVs) isolated from a tumor cell having reduced or lacking expression of an immune suppressive factor, wherein the immune suppressive factor is miR-424.
A lighting device comprising: a plurality of light source boards each having a wiring pattern including a plurality of wires; a plurality of light-emitting elements disposed on each light source board , switching on and off of which being controlled by a control board of the lighting device ; a plurality of board-side connectors each attached to a corresponding one of the plurality of light source boards ; a flexible flat cable that has a multi-core structure including a flat-shaped insulator and a plurality of conductors aligned in a direction orthogonal to a thickness direction of the insulator , and is connected at one end to the control board ; and a plurality of cable-side connectors attached to the flexible flat cable and each coupled to a corresponding one of the boardside connectors , wherein some conductors of the plurality of conductors connected to the control board are electrically connected to wires of at least two different light source boards via a corresponding one of the cable-side connectors and a corresponding one of the board-side connectors , each cable-side connector is provided with a plurality of connection terminals , characterised in that connection holes for exposing some conductors of the plurality of conductors are formed in the insulator , some connection terminals of the plurality of connection terminals are inserted into the connection holes to be connected to the conductors . a plurality of light source boards each having a wiring pattern including a plurality of wires; a plurality of light-emitting elements disposed on each light source board , switching on and off of which being controlled by a control board of the lighting device ; a plurality of board-side connectors each attached to a corresponding one of the plurality of light source boards ; a flexible flat cable that has a multi-core structure including a flat-shaped insulator and a plurality of conductors aligned in a direction orthogonal to a thickness direction of the insulator , and is connected at one end to the control board ; and a plurality of cable-side connectors attached to the flexible flat cable and each coupled to a corresponding one of the boardside connectors , wherein some conductors of the plurality of conductors connected to the control board are electrically connected to wires of at least two different light source boards via a corresponding one of the cable-side connectors and a corresponding one of the board-side connectors , each cable-side connector is provided with a plurality of connection terminals , characterised in that connection holes for exposing some conductors of the plurality of conductors are formed in the insulator , some connection terminals of the plurality of connection terminals are inserted into the connection holes to be connected to the conductors .
A leading-edge protector for a wind turbine rotor blade , comprising - a curved body shaped for attachment to the rotor blade along at least a section of its leading edge (LE); and characterized by - a plurality of fins , each fin extending radially outward from the curved body and terminating in a blunt outer face , and wherein each fin comprises two side faces , each side face extending from the curved body towards the blunt outer face ; and - a plurality of reinforcement bands , wherein a reinforcement band is attached to the blunt outer face of a fin , and wherein a reinforcement band is shaped as a continuation of the side faces of a fin . - a curved body shaped for attachment to the rotor blade along at least a section of its leading edge (LE); and characterized by - a plurality of fins , each fin extending radially outward from the curved body and terminating in a blunt outer face , and wherein each fin comprises two side faces , each side face extending from the curved body towards the blunt outer face ; and - a plurality of reinforcement bands , wherein a reinforcement band is attached to the blunt outer face of a fin , and wherein a reinforcement band is shaped as a continuation of the side faces of a fin .
A computer-implemented method for navigating a host vehicle , the method comprising: receiving , from an image capture device , a plurality of images representative of an environment of the host vehicle , the environment including a road on which the host vehicle is traveling; analyzing at least one of the plurality of images to identify a target vehicle traveling in a lane of the road different from a lane in which the host vehicle is traveling; analyzing at least one of the plurality of images to identify at least one lane mark associated with the lane in which the target vehicle is traveling; detecting one or more lane mark characteristics of the at least one identified lane mark; using the one or more detected lane mark characteristics to determine a type of the at least one identified lane mark , wherein the determined lane mark type includes a merge lane; the method being characterized in that it also comprises the steps of: determining at least one characteristic of the target vehicle including a detected lateral motion of the target vehicle relative to the at least one identified lane mark; and determining a navigational action for the host vehicle based on the determined lane mark type and the determined characteristic of the target vehicle . receiving , from an image capture device , a plurality of images representative of an environment of the host vehicle , the environment including a road on which the host vehicle is traveling; analyzing at least one of the plurality of images to identify a target vehicle traveling in a lane of the road different from a lane in which the host vehicle is traveling; analyzing at least one of the plurality of images to identify at least one lane mark associated with the lane in which the target vehicle is traveling; detecting one or more lane mark characteristics of the at least one identified lane mark; using the one or more detected lane mark characteristics to determine a type of the at least one identified lane mark , wherein the determined lane mark type includes a merge lane; the method being characterized in that it also comprises the steps of: determining at least one characteristic of the target vehicle including a detected lateral motion of the target vehicle relative to the at least one identified lane mark; and determining a navigational action for the host vehicle based on the determined lane mark type and the determined characteristic of the target vehicle . determining at least one characteristic of the target vehicle including a detected lateral motion of the target vehicle relative to the at least one identified lane mark; and determining a navigational action for the host vehicle based on the determined lane mark type and the determined characteristic of the target vehicle .
A disinfection unit of containers (C) or preforms (P), wherein it comprises a carousel on which there is supported a plurality of disinfection members which are movable between a raised position and a lowered position, wherein said lowered position is configured so as to allow the disinfection members to be introduced into said containers (C) or preforms (P) to be disinfected, wherein each of said disinfection members is connected with a laser source which emits UV-C or VIR radiation, the disinfection member comprises a stem which is vertically movable between a raised position, in which the stem is positioned above the neck of the bottle (C), and a lowered position, in which a lower portion of the stem is inserted in the bottle (C), characterised in that the stem comprises: - an upper portion having tubular shape, so as to incorporate therein an optical path of the laser radiation conducted by an optical fiber , the upper portion having a feed-screw outer surface, - a rotatable lower portion , configured so as to insert into the neck of the bottle (C), and - a bushing or bearing element which is integral with the upper portion and wherein the lower portion is rotatably associated, and wherein the stem encloses therein an optical system which defines the optical path of the radiation generated by the laser source , said optical system comprising, in order: - a collimator ; - a first and a second group of cylindrical micro-lenses ; - a first and a second cylindrical lens ; - an optical assembly comprising, in order: i) a first concave cylindrical lens , ii) a beam splitter , iii) a second concave cylindrical lens and iv) an optical wedge arranged at the beam splitter, perpendicularly with respect to the first and second concave cylindrical lens . - an upper portion having tubular shape, so as to incorporate therein an optical path of the laser radiation conducted by an optical fiber , the upper portion having a feed-screw outer surface, - a rotatable lower portion , configured so as to insert into the neck of the bottle (C), and - a bushing or bearing element which is integral with the upper portion and wherein the lower portion is rotatably associated, and wherein the stem encloses therein an optical system which defines the optical path of the radiation generated by the laser source , said optical system comprising, in order: - a collimator ; - a first and a second group of cylindrical micro-lenses ; - a first and a second cylindrical lens ; - a collimator ; - a first and a second group of cylindrical micro-lenses ; - a first and a second cylindrical lens ; - an optical assembly comprising, in order: i) a first concave cylindrical lens , ii) a beam splitter , iii) a second concave cylindrical lens and iv) an optical wedge arranged at the beam splitter, perpendicularly with respect to the first and second concave cylindrical lens .
A process for the production of a fat-fiber powder comprising up to 93wt% of a fat and at least 7wt% of a fiber, the process comprising the steps of: a) Melting fat; b) Mixing fiber, melted fat, and water at a weight ratio of fiber to water between 1:2.5 and 1:30; c) Drying the mixture of step b); d) Optionally milling the fat-fiber powder after the drying step c); wherein the fiber is characterized by having a rate of hydration between 15 to 500 cP/min and wherein the fat has a solid fat content (SFC) at 20°C of at least 12.1 wt% (by weight of total fat), wherein said rate of hydration is measured according to the method disclosed in example 1. a) Melting fat; b) Mixing fiber, melted fat, and water at a weight ratio of fiber to water between 1:2.5 and 1:30; c) Drying the mixture of step b); d) Optionally milling the fat-fiber powder after the drying step c);
Reference electrode for potentiometric measurement of ion concentrations, comprising a swellable polymer body filled with at least one electrolyte salt and a potential sensing element of the second type , preferably of the Ag/AgCl type, located in the polymer body, characterized in that the polymer body is composed of organic, hydrophobic prepolymer segments , which are three-dimensionally crosslinked by organic, hydrophilic polymer chains .
A polymer-drug conjugate of formula I wherein o R 1 and R 2 are independently selected from H or -CH 3 ; R 3 is selected from -H or -CH 3 ; o x is a natural number between 1-100; o y is a natural number between 1-100; o n is a natural number between 1-200 and o L is a cleavable linker and o D is at least one therapeutic agent; o Z is selected from -O or -NH; o A is an end group that is optionally a polymerization initiator or a fragment thereof o B is an end group that is optionally a polymerization initiator or a fragment thereof o R 1 and R 2 are independently selected from H or -CH 3 ; R 3 is selected from -H or -CH 3 ; o x is a natural number between 1-100; o y is a natural number between 1-100; o n is a natural number between 1-200 and o L is a cleavable linker and o D is at least one therapeutic agent; o Z is selected from -O or -NH; o A is an end group that is optionally a polymerization initiator or a fragment thereof o B is an end group that is optionally a polymerization initiator or a fragment thereof