mhurhangee/patent-ind-claim-en huggingface dataset:
A telephone system comprising: a first telephone set configured to receive a call from another person; a second telephone set that is a transfer destination of the call; voice data acquisition means for acquiring voice data of the other person on the call received by the first telephone set ; voice recognition means for performing voice recognition on the voice data acquired by the voice data acquisition means within a predetermined time from a start of the call and generating text data based on the converted voice data; and transfer destination text display means for displaying the text data generated by the voice recognition means for a user of the second telephone set , wherein the first telephone set includes the voice data acquisition means , the voice recognition means , and text data transmission means for transmitting the text data generated by the voice recognition means to the second telephone set , wherein the first telephone set further comprises transfer processing means for performing processing to transfer the call to the second telephone set , and wherein when a user performs a transfer operation for transferring the call to the second telephone set , the transfer processing means instructs the text data transmission means to transmit the text data to the second telephone set . a first telephone set configured to receive a call from another person; a second telephone set that is a transfer destination of the call; voice data acquisition means for acquiring voice data of the other person on the call received by the first telephone set ; voice recognition means for performing voice recognition on the voice data acquired by the voice data acquisition means within a predetermined time from a start of the call and generating text data based on the converted voice data; and transfer destination text display means for displaying the text data generated by the voice recognition means for a user of the second telephone set , wherein the first telephone set includes the voice data acquisition means , the voice recognition means , and text data transmission means for transmitting the text data generated by the voice recognition means to the second telephone set , wherein the first telephone set further comprises transfer processing means for performing processing to transfer the call to the second telephone set , and wherein when a user performs a transfer operation for transferring the call to the second telephone set , the transfer processing means instructs the text data transmission means to transmit the text data to the second telephone set .
A coupler/distributor , comprising: a plurality of laser light sources (12 LL1 -12 LL3 ); one or more optical fiber attachments (40 Lo , 40 Hi ); and a plurality of optical elements (B1-B7, M1-M3, CB, PT) which are disposed between the plurality of laser light sources (12 LL1 -12 LL3 ) and one or more optical fiber attachments (40 Lo , 40 Hi ), and constitute an optical path guiding laser light from at least one of the plurality of laser light sources (12 LL1 -12 LL3 ) to an incident end of one or more optical fibers (20 Lo , 20 Hi ) connected to the one or more optical fiber attachments (40 Lo , 40 Hi ); the coupler/distributor further comprises a laser light source control device characterized in that the laser light source control device is configured to control the plurality of laser light sources (12 LL1 -12 LL3 ) so as to light up in predetermined order at a predetermined optical output every lapse of a predetermined time, wherein when a temperature of an ambient environment is lower than a predetermined threshold value, the laser light source control device controls the plurality of laser light sources (12 LL1 -12 LL3 ) so as to light up in predetermined order at a first optical output every lapse of a predetermined time, and when the temperature of the ambient environment is higher than the predetermined threshold value, the laser light source control device controls the plurality of laser light sources (12 LL1 -12 LL3 ) so as to light up in predetermined order at a second optical output lower than the first optical output every lapse of the predetermined time. a plurality of laser light sources (12 LL1 -12 LL3 ); one or more optical fiber attachments (40 Lo , 40 Hi ); and a plurality of optical elements (B1-B7, M1-M3, CB, PT) which are disposed between the plurality of laser light sources (12 LL1 -12 LL3 ) and one or more optical fiber attachments (40 Lo , 40 Hi ), and constitute an optical path guiding laser light from at least one of the plurality of laser light sources (12 LL1 -12 LL3 ) to an incident end of one or more optical fibers (20 Lo , 20 Hi ) connected to the one or more optical fiber attachments (40 Lo , 40 Hi ); the coupler/distributor further comprises a laser light source control device characterized in that the laser light source control device is configured to control the plurality of laser light sources (12 LL1 -12 LL3 ) so as to light up in predetermined order at a predetermined optical output every lapse of a predetermined time, wherein when a temperature of an ambient environment is lower than a predetermined threshold value, the laser light source control device controls the plurality of laser light sources (12 LL1 -12 LL3 ) so as to light up in predetermined order at a first optical output every lapse of a predetermined time, and when the temperature of the ambient environment is higher than the predetermined threshold value, the laser light source control device controls the plurality of laser light sources (12 LL1 -12 LL3 ) so as to light up in predetermined order at a second optical output lower than the first optical output every lapse of the predetermined time.
Sensor arrangement comprising an electroacoustic transducer having a front body with a bottom face and an end face , at least one piezoelectric element with a first surface and a second surface , and a rear body with a first end face and a second end face , wherein the end face of the front body is coupled to a diaphragm which is suitable for emitting and/or receiving sound waves, and wherein the bottom face of the front body is connected to the first surface of the piezoelectric element in a cohesive and/or force-fitting and/or form-fitting manner, and the second end face of the rear body is connected to the second surface of the piezoelectric element in a cohesive and/or force-fitting and/or form-fitting manner, characterized in that the sum (I r ) of the distance (I 2 ) between the first end face and the second end face of the rear body and half of the thickness (d) of the piezoelectric element corresponds to half the wavelength (λ r ) of a resonant oscillation of the sensor arrangement in the thickness direction (D), wherein the front body has a cross-sectional area varying over its length, and the front body comprises a first plate having the bottom face and a second plate having the end face as well as a rod-shaped section which connects the first plate and the second plate , wherein the cross-sectional area of the rod-shaped section is smaller than the bottom face and is smaller than the end face .
Method for the manufacturing of vehicles, in which vehicle bodies are conveyed through a plurality of treatment installations (20.i-j; 66, 66', 66") for performing a plurality of work steps (12.i, 14.i, 18.i, 20.i), wherein work of a different kind is performed on the vehicle bodies in two successive work steps (12.i, 12.i+1; 14.i, 14.i+1; 18.i, 18.i+1; 20.i, 20.i+1), characterized in that the vehicle bodies are conveyed at least from a corrosion protection treatment to a final assembly in a surface treatment plant for the surface treatment of the vehicle bodies at least region-wise with a driverless transport system , which comprises a plurality of floor-bound transport carriages , which travel on a travel floor and which each carry their own drive system with them and are driven and moved independently of one another. vehicle bodies are conveyed through a plurality of treatment installations (20.i-j; 66, 66', 66") for performing a plurality of work steps (12.i, 14.i, 18.i, 20.i), wherein work of a different kind is performed on the vehicle bodies in two successive work steps (12.i, 12.i+1; 14.i, 14.i+1; 18.i, 18.i+1; 20.i, 20.i+1), characterized in that the vehicle bodies are conveyed at least from a corrosion protection treatment to a final assembly in a surface treatment plant for the surface treatment of the vehicle bodies at least region-wise with a driverless transport system , which comprises a plurality of floor-bound transport carriages , which travel on a travel floor and which each carry their own drive system with them and are driven and moved independently of one another.
A method for generating an additional unique credential from a same credential request value in a secure digital communication system having a trusted entity CA and at least one subscriber entity A , comprising: a) obtaining a secret value d A and associated public value G A for entity A; b) sending the same credential request to the trusted entity CA comprising a first value associated with the public value G A where sending the same credential request comprises sending to the trusted entity CA a previously issued implicit certificate IC A associated with the public key value G A ; and c) receiving from the trusted entity CA a unique credential and associated private key contribution value S A , thereby obtaining the additional unique credential from the corresponding trusted entity CA d) generate a private key from the received private key contribution value S A using the secret value d A . a) obtaining a secret value d A and associated public value G A for entity A; b) sending the same credential request to the trusted entity CA comprising a first value associated with the public value G A where sending the same credential request comprises sending to the trusted entity CA a previously issued implicit certificate IC A associated with the public key value G A ; and c) receiving from the trusted entity CA a unique credential and associated private key contribution value S A , thereby obtaining the additional unique credential from the corresponding trusted entity CA d) generate a private key from the received private key contribution value S A using the secret value d A .
A multi-state variable dielectric antenna, comprising: a top dielectric ; a bottom dielectric ; a variable dielectric plate between the top dielectric and the bottom dielectric ; a plurality of conductive devices provided over the variable dielectric plate ;an RF feed provided below the bottom dielectric ; wherein the variable dielectric plate comprises: a top binder ; a bottom binder ; variable dielectric constant material provided between the top binder and bottom binder , the variable dielectric constant material divided into pixels, each pixel located below a corresponding conductive device and having a plurality of electrodes (126a; 126b; 126c) on the top binder; a plurality of conductive lines , each conductive line connected independently to one of the electrodes (126a; 126b; 126c) and to a controller , such that each of the plurality of electrodes (126a; 126b; 126c) of a single pixel independently receives an activation signal from the controller , wherein the antenna further comprises one or more ground electrodes (130a; 130b; 130c) on the bottom binder or a ground plane . a top dielectric ; a bottom dielectric ; a variable dielectric plate between the top dielectric and the bottom dielectric ; a plurality of conductive devices provided over the variable dielectric plate ;an RF feed provided below the bottom dielectric ; wherein the variable dielectric plate comprises: a top binder ; a bottom binder ; variable dielectric constant material provided between the top binder and bottom binder , the variable dielectric constant material divided into pixels, each pixel located below a corresponding conductive device and having a plurality of electrodes (126a; 126b; 126c) on the top binder; a plurality of conductive lines , each conductive line connected independently to one of the electrodes (126a; 126b; 126c) and to a controller , such that each of the plurality of electrodes (126a; 126b; 126c) of a single pixel independently receives an activation signal from the controller , wherein the antenna further comprises one or more ground electrodes (130a; 130b; 130c) on the bottom binder or a ground plane . a top binder ; a bottom binder ; variable dielectric constant material provided between the top binder and bottom binder , the variable dielectric constant material divided into pixels, each pixel located below a corresponding conductive device and having a plurality of electrodes (126a; 126b; 126c) on the top binder; a plurality of conductive lines , each conductive line connected independently to one of the electrodes (126a; 126b; 126c) and to a controller , such that each of the plurality of electrodes (126a; 126b; 126c) of a single pixel independently receives an activation signal from the controller , wherein the antenna further comprises one or more ground electrodes (130a; 130b; 130c) on the bottom binder or a ground plane .
A method for transmitting an uplink channel by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a base station, BS, , UE capability information, wherein the UE capability information includes (i) first information for coherence capability supported by the UE and (ii) second information for a subset of transmit precoding matrix indicators, TPMIs, which deliver full transmission power, wherein the first information includes information for one of (i) full coherent, (ii) partial coherent or (iii) non coherent, wherein the second information includes (i) a first parameter for a first TPMI for uplink transmission using two antenna ports and (ii) a second parameter for a second TPMI for uplink transmission using four antenna ports, and wherein the first TPMI and the second TPMI are used to deliver full transmission power; receiving, from the BS, control information including precoding information for a TPMI used for the UE to transmit the uplink channel; determining a transmission power for the uplink channel; and transmitting, to the BS, the uplink channel based on the control information and the determined transmission power, wherein based on the TPMI determined based on the precoding information being equal to the first TPMI or the second TPMI, the uplink channel is transmitted with full transmission power. transmitting, to a base station, BS, , UE capability information, wherein the UE capability information includes (i) first information for coherence capability supported by the UE and (ii) second information for a subset of transmit precoding matrix indicators, TPMIs, which deliver full transmission power, wherein the first information includes information for one of (i) full coherent, (ii) partial coherent or (iii) non coherent, wherein the second information includes (i) a first parameter for a first TPMI for uplink transmission using two antenna ports and (ii) a second parameter for a second TPMI for uplink transmission using four antenna ports, and wherein the first TPMI and the second TPMI are used to deliver full transmission power; receiving, from the BS, control information including precoding information for a TPMI used for the UE to transmit the uplink channel; determining a transmission power for the uplink channel; and transmitting, to the BS, the uplink channel based on the control information and the determined transmission power, wherein based on the TPMI determined based on the precoding information being equal to the first TPMI or the second TPMI, the uplink channel is transmitted with full transmission power.
A thin cast steel strip of less than 3mm in thickness comprising, by weight, less than 0.25% carbon, between 0.20 and 2.0% manganese, between 0.05 and 0.50% silicon, less than 0.01% aluminum, and niobium between 0.01% and 0.20% and having a majority of the microstructure comprised of bainite and acicular ferrite and having more than 70% niobium in solid solution, and having a yield strength of at least 380MPa and a total elongation of at least 6%.
A rotary internal combustion engine comprising: a rotor ; a housing circumscribing a rotor cavity , the rotor received within the rotor cavity , the housing having a peripheral wall and a side housing assembly secured to the peripheral wall , the side housing assembly having plates located at spaced apart ends of the peripheral wall , the plates defining seal running surfaces in sealing engagement with opposed end faces of the rotor , characterised in that : the plates are silicon carbide plates; the side housing assembly includes two end walls secured at opposed ends of the peripheral wall , the plates located on inner sides of the end walls , peripheries of the plates sandwiched between the end walls and the peripheral wall ; the end walls are made of a material different than that of the plates ; and the plates are floating such that mechanical deformations imposed on them by surrounding structures are minimized. the plates are silicon carbide plates; the side housing assembly includes two end walls secured at opposed ends of the peripheral wall , the plates located on inner sides of the end walls , peripheries of the plates sandwiched between the end walls and the peripheral wall ; the end walls are made of a material different than that of the plates ; and the plates are floating such that mechanical deformations imposed on them by surrounding structures are minimized.
A metal core for hot-shaping a metal part (10; 10') made out of titanium-based alloy, comprising an alloy based on nickel or on cobalt, nickel- or cobalt-based alloy including chromium, molybdenum, and/or titanium, and characterized in that the metal core also presents on an outside surface that is to come into contact with the metal part (10; 10'), a layer comprising a material that is enriched in metallic carbonitride relative to said alloy .
An additive masterbatch composition comprising (A) a semi-crystalline polyolefin carrier resin that consists essentially of any one of (i) to (v): (i) a semi-crystalline high density polyethylene having a density of from 0.930 to 0.970 g/cm 3 ; (ii) a semi-crystalline polypropylene; (iii) a semi-crystalline ethylene/propylene copolymer; (iv) a semi-crystalline poly(ethylene-co-alpha-olefin) copolymer; (v) a combination (e.g. mixture or blend) of any two or more of (i) and (iv); and the (A) semi-crystalline polyolefin carrier resin has a crystallinity of 76 ± 1 wt%, as determined by differential scanning calorimetry (DSC) according to ASTM D3418-15 or the Crystallinity Test Method described in the description; and an additive package comprising (B) a flame retardant; wherein (A) is 10 to 90 weight percent (wt%) and the additive package is from 90 to 10 wt% of total weight (100.00 wt%) of the additive masterbatch composition; wherein the (B) flame retardant comprises (B1) a mineral and wherein the additive masterbatch composition further comprises a flame retardant synergist compound which is antimony trioxide; and wherein the flame retardant synergist compound is distinct from the (B1) mineral in at least one aspect such as composition or function.
A method for detecting and tracking human activities in the vicinity of a robot, the method comprising: combining one or more two-dimensional images obtained from a time-of-flight (ToF) sensor with contemporaneously obtained data from a radar sensor , to obtain fused sensor data; detecting the presence of a human in the vicinity of the robot, based on the fused sensor data; and estimating direction of motion and speed of motion of the human, based on the fused sensor data, wherein said detecting and estimating are performed using a machine-learning model, the machine-learning model having been trained using two-dimensional ToF images and radar sensor data representative of an environment for the robot; and aligning velocity and/or range data obtained from the radar sensor with depth and/or amplitude data in the two-dimensional images, for input into the machine learning model; and filtering the velocity and/or range data and the depth and/or amplitude data, to detect distinct features in the combined data, prior to said detecting and estimating. combining one or more two-dimensional images obtained from a time-of-flight (ToF) sensor with contemporaneously obtained data from a radar sensor , to obtain fused sensor data; detecting the presence of a human in the vicinity of the robot, based on the fused sensor data; and estimating direction of motion and speed of motion of the human, based on the fused sensor data, wherein said detecting and estimating are performed using a machine-learning model, the machine-learning model having been trained using two-dimensional ToF images and radar sensor data representative of an environment for the robot; and aligning velocity and/or range data obtained from the radar sensor with depth and/or amplitude data in the two-dimensional images, for input into the machine learning model; and filtering the velocity and/or range data and the depth and/or amplitude data, to detect distinct features in the combined data, prior to said detecting and estimating.
A fixed nozzle dispenser pump having a modular construction for disassembly and cleaning, the dispenser pump comprising: a pump body element having a lower inlet end with lower engagement features , a dispensing nozzle , and a pump chamber extension with a skirt coaxially extending around a portion of the pump chamber extension at a defined gap and the skirt having one or more outer facing keying projections ; an actuator cap comprising a hollow tube sealed at a top end by a top panel and having engagement features disposed at a lower end ; a piston element configured to fit coaxially around the pump body extension, the piston element detachably coupled to the engagement features of the actuator cap so that the piston element and the actuator cap move axially in concert around an outer facing of a portion of the pump chamber extension; a sealing ring detachably coupled to a top edge of the pump chamber extension and configured to sealingly engaging an inner surface of the hollow tube; a unitary nozzle adapter including an outlet valve detachably coupled to a distal edge of the dispenser nozzle; a base detachably coupled to the lower engagement features of the body element; and an inlet element interposed between the pump body element and the based unit element, the inlet element including an inlet valve . a pump body element having a lower inlet end with lower engagement features , a dispensing nozzle , and a pump chamber extension with a skirt coaxially extending around a portion of the pump chamber extension at a defined gap and the skirt having one or more outer facing keying projections ; an actuator cap comprising a hollow tube sealed at a top end by a top panel and having engagement features disposed at a lower end ; a piston element configured to fit coaxially around the pump body extension, the piston element detachably coupled to the engagement features of the actuator cap so that the piston element and the actuator cap move axially in concert around an outer facing of a portion of the pump chamber extension; a sealing ring detachably coupled to a top edge of the pump chamber extension and configured to sealingly engaging an inner surface of the hollow tube; a unitary nozzle adapter including an outlet valve detachably coupled to a distal edge of the dispenser nozzle; a base detachably coupled to the lower engagement features of the body element; and an inlet element interposed between the pump body element and the based unit element, the inlet element including an inlet valve .