mhurhangee/patent-ind-claim-en huggingface dataset:
A multifunctional signal transceiver, comprising a housing , and an antenna assembly and a circuit assembly provided in the housing, wherein the antenna assembly at least comprises a first antenna for receiving a TV signal, a second antenna for receiving and sending a mobile communication signal, and a third antenna for receiving and sending a WIFI signal; the first antenna , the second antenna , and the third antenna are arranged in the housing successively from top to bottom, wherein the circuit assembly at least comprises a 4G mobile communication signal processing module connected with the second antenna , characterized in that the 4G mobile communication signal processing module is also connected with the third antenna , whereby the 4G mobile communication signal processing module comprises a same frequency combiner, a 4G-mobile-signal-to-WIFI module , and a 4G mobile signal magnification module , wherein the same frequency combiner at least comprises one input end and two output ends, wherein the input end is electrically connected with the second antenna . the two output ends are respectively electrically connected with the 4G-mobile-signal -to-WIFI module and the 4G mobile signal magnification module , and the 4G mobile signal-to-WIFI module is electrically connected with the third antenna . the antenna assembly at least comprises a first antenna for receiving a TV signal, a second antenna for receiving and sending a mobile communication signal, and a third antenna for receiving and sending a WIFI signal; the first antenna , the second antenna , and the third antenna are arranged in the housing successively from top to bottom, wherein the circuit assembly at least comprises a 4G mobile communication signal processing module connected with the second antenna , characterized in that the 4G mobile communication signal processing module is also connected with the third antenna , whereby the 4G mobile communication signal processing module comprises a same frequency combiner, a 4G-mobile-signal-to-WIFI module , and a 4G mobile signal magnification module , wherein the same frequency combiner at least comprises one input end and two output ends, wherein the input end is electrically connected with the second antenna . the two output ends are respectively electrically connected with the 4G-mobile-signal -to-WIFI module and the 4G mobile signal magnification module , and the 4G mobile signal-to-WIFI module is electrically connected with the third antenna .
A moving assist apparatus for assisting a vehicle which includes an internal combustion engine and an electric motor as a driving source to move from a current position to a destination, the moving assist apparatus comprising: a planning unit configured to, for each section obtained by dividing a traveling route from the current position to the destination, plan one traveling mode from a first mode of not maintaining a charge storage amount of a battery and a second mode of maintaining the charge storage amount of the battery , based on a traveling load associated with the section, wherein the planning unit is configured to replan the traveling mode under a predetermined condition, and if a remaining distance or a remaining time of the section on which the vehicle is traveling is shorter than a respective threshold while the predetermined condition is satisfied, to replan a current traveling mode to be the traveling mode in priority. a planning unit configured to, for each section obtained by dividing a traveling route from the current position to the destination, plan one traveling mode from a first mode of not maintaining a charge storage amount of a battery and a second mode of maintaining the charge storage amount of the battery , based on a traveling load associated with the section, wherein the planning unit is configured to replan the traveling mode under a predetermined condition, and if a remaining distance or a remaining time of the section on which the vehicle is traveling is shorter than a respective threshold while the predetermined condition is satisfied, to replan a current traveling mode to be the traveling mode in priority.
Nozzle for blowing gas into a combustion plant with a pipe and a swirl generator , wherein the pipe is cylindrical and the swirl generator is attached on the inner side of the pipe , wherein the swirl generator has swirl vanes with a straight inlet section, characterized in that the swirl vanes have a length of 20 to 60 mm, of which 30% to 70% and preferably approximately 50% is designed as a straight inlet section.
A method for operating a terminal in a wireless communication system, the method comprising: displaying a location of at least one neighboring device on a device map generated by the terminal based on a beam direction from the terminal to the at least one neighboring device and based on a distance from the terminal to the at least one neighboring device; selecting a neighboring device from the displayed device map based on a user input; transmitting data to the selected neighboring device; wherein the beam direction is determined by performing a beam sweeping between the terminal and the at least one neighboring device, the beam sweeping comprising an electric beam sweeping and a manual beam sweeping, wherein, when an area which can be discovered by the electric beam sweeping is limited, the discovering area is extended by manually changing the direction of the terminal and by combining information on the changed direction of the terminal through a location change measurement with direction information of beams according to the electric beam sweeping. displaying a location of at least one neighboring device on a device map generated by the terminal based on a beam direction from the terminal to the at least one neighboring device and based on a distance from the terminal to the at least one neighboring device; selecting a neighboring device from the displayed device map based on a user input; transmitting data to the selected neighboring device; wherein the beam direction is determined by performing a beam sweeping between the terminal and the at least one neighboring device, the beam sweeping comprising an electric beam sweeping and a manual beam sweeping, wherein, when an area which can be discovered by the electric beam sweeping is limited, the discovering area is extended by manually changing the direction of the terminal and by combining information on the changed direction of the terminal through a location change measurement with direction information of beams according to the electric beam sweeping.
An intraluminal ultrasound imaging device comprising: a flexible elongate member configured to be inserted into a body lumen of a patient, the flexible elongate member comprising a proximal portion and a distal portion; an ultrasound scanner assembly disposed at the distal portion of the flexible elongate member, the ultrasound scanner assembly comprising: a support member ; a flexible substrate ; a transducer region positioned on the flexible substrate; and a control logic region positioned on the flexible substrate, characterized in that the flexible substrate is wrapped around the support member with the support member forming an inner layer, the control logic region forming a middle layer, and the transducer region around the control logic region forming an outer layer of the scanner assembly, and with the transducer region and the control logic region being radially spaced relative to one another. a flexible elongate member configured to be inserted into a body lumen of a patient, the flexible elongate member comprising a proximal portion and a distal portion; an ultrasound scanner assembly disposed at the distal portion of the flexible elongate member, the ultrasound scanner assembly comprising: a support member ; a flexible substrate ; a transducer region positioned on the flexible substrate; and a control logic region positioned on the flexible substrate, characterized in that a support member ; a flexible substrate ; a transducer region positioned on the flexible substrate; and a control logic region positioned on the flexible substrate, characterized in that the flexible substrate is wrapped around the support member with the support member forming an inner layer, the control logic region forming a middle layer, and the transducer region around the control logic region forming an outer layer of the scanner assembly, and with the transducer region and the control logic region being radially spaced relative to one another.
A plant material comprising a genomic nucleotide sequence encoding a sugar signaling in barley 2 (SUSIBA2) or SUSIBA2-like transcription factor under transcriptional control of a promoter active in said plant material, said genomic nucleotide sequence encoding said SUSIBA2 or SUSIBA2-like transcription factor lacks at least a portion of an activation region of a SUSIBA1 or SUSIBA1 -like promoter ( SUSIBA1 p or SUSIBA1 -like p), present in an intron of a wild-type version of said 2. genomic nucleotide sequence encoding said SUSIBA2 or SUSIBA2-like transcription factor, wherein said plant material is selected from the group consisting of a barley plant material, and a rice plant material; said genomic nucleotide sequence encoding said SUSIBA2-like transcription factor is OsSUSIBA2-like gene in rice that is a corresponding version of the SUSIBA2 gene present in barley; said genomic nucleotide sequence encoding said SUSIBA2 transcription factor encodes a SUSIBA2 transcription factor as defined in SEQ ID NO: 104 and said genomic nucleotide sequence encoding said SUSIBA2-like transcription factor encodes a SUSIBA2-like transcription factor as defined in SEQ ID NO: 105; said SUSIBA1 p is defined in SEQ ID NO: 96 and said SUSIBA1 -like p is defined in SEQ ID NO: 97; said SUSIBA1 -like p is a promoter of a nucleotide sequence encoding a SUSIBA1-like transcription factor; and said activation region of said SUSIBA1 p is as defined in SEQ ID NO: 92 and said activation region of said SUSIBA1 -like p is as defined in SEQ ID NO: 93 for rice. said plant material is selected from the group consisting of a barley plant material, and a rice plant material; said genomic nucleotide sequence encoding said SUSIBA2-like transcription factor is OsSUSIBA2-like gene in rice that is a corresponding version of the SUSIBA2 gene present in barley; said genomic nucleotide sequence encoding said SUSIBA2 transcription factor encodes a SUSIBA2 transcription factor as defined in SEQ ID NO: 104 and said genomic nucleotide sequence encoding said SUSIBA2-like transcription factor encodes a SUSIBA2-like transcription factor as defined in SEQ ID NO: 105; said SUSIBA1 p is defined in SEQ ID NO: 96 and said SUSIBA1 -like p is defined in SEQ ID NO: 97; said SUSIBA1 -like p is a promoter of a nucleotide sequence encoding a SUSIBA1-like transcription factor; and said activation region of said SUSIBA1 p is as defined in SEQ ID NO: 92 and said activation region of said SUSIBA1 -like p is as defined in SEQ ID NO: 93 for rice.
A gradient permittivity film comprising: a first permittivity layer comprising a first continuous matrix of a first material having a first relative permittivity ε r1 and a second component having a second relative permittivity ε r2 dispersed in the first continuous matrix, the first permittivity layer having a first effective layer relative permittivity ε 1 and a thickness T 1 ; and a second permittivity layer having a second effective layer relative permittivity ε 2 and a thickness T 2 disposed on the first permittivity layer; wherein the gradient permittivity film has a haze greater than 50% or a transmission of visible light less than 50%; and wherein: ε 2 is greater than ε 1 by at least 10% for at least one frequency f within a frequency range between 20 GHz and 300 GHz, ε 1 = 1.1 to 10 ε 2 = 1.11 to 10 T 1 = 0.8 t 1 to 1.2 t 1 , where t 1 = c 4 f ε 1 T 2 = 0.8 t 2 to 1.2 t 2 , where t 2 = c 4 f ε 2 ε r1 is greater than ε r2 for the frequency f ; and wherein the second permittivity layer is an adhesive. a first permittivity layer comprising a first continuous matrix of a first material having a first relative permittivity ε r1 and a second component having a second relative permittivity ε r2 dispersed in the first continuous matrix, the first permittivity layer having a first effective layer relative permittivity ε 1 and a thickness T 1 ; and a second permittivity layer having a second effective layer relative permittivity ε 2 and a thickness T 2 disposed on the first permittivity layer; wherein the gradient permittivity film has a haze greater than 50% or a transmission of visible light less than 50%; and wherein: ε 2 is greater than ε 1 by at least 10% for at least one frequency f within a frequency range between 20 GHz and 300 GHz, ε 1 = 1.1 to 10 ε 2 = 1.11 to 10 T 1 = 0.8 t 1 to 1.2 t 1 , where t 1 = c 4 f ε 1 T 2 = 0.8 t 2 to 1.2 t 2 , where t 2 = c 4 f ε 2 ε r1 is greater than ε r2 for the frequency f ; and ε 2 is greater than ε 1 by at least 10% for at least one frequency f within a frequency range between 20 GHz and 300 GHz, ε 1 = 1.1 to 10 ε 2 = 1.11 to 10 T 1 = 0.8 t 1 to 1.2 t 1 , where t 1 = c 4 f ε 1 T 2 = 0.8 t 2 to 1.2 t 2 , where t 2 = c 4 f ε 2 ε r1 is greater than ε r2 for the frequency f ; and wherein the second permittivity layer is an adhesive.
Horn antenna for emitting an electromagnetic HPEM microwave pulse along a central axis , - comprising a microwave generator for generating the pulse , wherein the generator has a waveguide with a generator opening for outputting the pulse , the waveguide extending along the central axis , and - comprising a horn structure for shaping the pulse , said horn structure having an input opening serving to radiate in the pulse and being connected to the generator opening and an emission opening for emitting the shaped pulse , - wherein the generator contains at least one HPEM source for generating the pulse , - wherein each of the HPEM sources contains at least two antennas (22a-d) which are arranged in succession in parallel with the central axis and serve to each emit a pulse component (24a-d), - wherein the horn antenna is configured to form the pulse as the sum of the pulse components (24a-d), and characterized in that at least one of the HPEM sources contains at least three antennas (22a-d) and adjacent antennas (22a-d) of this HPEM source have different spacings (d) from one another. - comprising a microwave generator for generating the pulse , wherein the generator has a waveguide with a generator opening for outputting the pulse , the waveguide extending along the central axis , and - comprising a horn structure for shaping the pulse , said horn structure having an input opening serving to radiate in the pulse and being connected to the generator opening and an emission opening for emitting the shaped pulse , - wherein the generator contains at least one HPEM source for generating the pulse , - wherein each of the HPEM sources contains at least two antennas (22a-d) which are arranged in succession in parallel with the central axis and serve to each emit a pulse component (24a-d), - wherein the horn antenna is configured to form the pulse as the sum of the pulse components (24a-d), and characterized in that
- A closure assembly for a container filled or fillable with a pourable product; the closure assembly comprising: - a lid ; - a first ring member ; wherein the first ring member is designed as a tamper-evidence element; - a cutting device configured to rupture and/or pierce and/or cut and/or open a separation membrane, and - a control device configured to control the cutting device from a rest position to an operative position in which cutting device is adapted to rupture and/or pierce and/or cut and/or open the separation membrane, characterized by further comprising: - a second ring member coaxial to the first ring member ; - a coupling element connected to the lid and to the second ring member , wherein the lid is controllable in at least a first operative configuration in which the lid is coaxial to the first ring member and/or the second ring member and a second operative configuration in which the lid is transversally arranged with respect to the first ring member and/or the second ring member , wherein the second ring member is interposed between the lid and the first ring member with the lid being controlled in the first operative configuration. the closure assembly comprising: - a lid ; - a first ring member ; wherein the first ring member is designed as a tamper-evidence element; - a cutting device configured to rupture and/or pierce and/or cut and/or open a separation membrane, and - a control device configured to control the cutting device from a rest position to an operative position in which cutting device is adapted to rupture and/or pierce and/or cut and/or open the separation membrane, - a lid ; - a first ring member ; wherein the first ring member is designed as a tamper-evidence element; - a cutting device configured to rupture and/or pierce and/or cut and/or open a separation membrane, and - a control device configured to control the cutting device from a rest position to an operative position in which cutting device is adapted to rupture and/or pierce and/or cut and/or open the separation membrane, characterized by further comprising: - a second ring member coaxial to the first ring member ; - a coupling element connected to the lid and to the second ring member , - a second ring member coaxial to the first ring member ; - a coupling element connected to the lid and to the second ring member , wherein the lid is controllable in at least a first operative configuration in which the lid is coaxial to the first ring member and/or the second ring member and a second operative configuration in which the lid is transversally arranged with respect to the first ring member and/or the second ring member , wherein the second ring member is interposed between the lid and the first ring member with the lid being controlled in the first operative configuration.
A software token personalization method comprising the steps of: generating, at an authentication server , a first personalization seed; generating, at the authentication server, a first personalization initiating message comprising said first personalization seed; receiving, at a first authentication token associated with a specific user , said first personalization initiating message; retrieving, at the first authentication token, said first personalization seed from the received first personalization initiating message; generating, at the first authentication token, a second personalization seed from said retrieved first personalization seed; generating, at the first authentication token, a second personalization message comprising said generated second personalization seed; receiving , at a second software authentication token that is different from the first authentication token, said second personalization message; retrieving, at the second software authentication token, said second initialization seed from the received second personalization message; deriving , at the second software authentication token, a value for a credential generation key from the retrieved second personalization seed; and determining, at the authentication server, a server copy of the credential generation key. generating, at an authentication server , a first personalization seed; generating, at the authentication server, a first personalization initiating message comprising said first personalization seed; receiving, at a first authentication token associated with a specific user , said first personalization initiating message; retrieving, at the first authentication token, said first personalization seed from the received first personalization initiating message; generating, at the first authentication token, a second personalization seed from said retrieved first personalization seed; generating, at the first authentication token, a second personalization message comprising said generated second personalization seed; receiving , at a second software authentication token that is different from the first authentication token, said second personalization message; retrieving, at the second software authentication token, said second initialization seed from the received second personalization message; deriving , at the second software authentication token, a value for a credential generation key from the retrieved second personalization seed; and determining, at the authentication server, a server copy of the credential generation key.
A break-stem blind rivet , having a blind rivet mandrel and a blind rivet sleeve , wherein the blind rivet mandrel has an elongate shank , a head at one end of the shank and also a predetermined breaking point , and wherein the blind rivet sleeve has a sleeve shank and a sleeve head which are designed to receive the blind rivet mandrel , wherein the shank of the blind rivet mandrel in the region of the predetermined breaking point has a radial extent which is greater than the radial extent of the elongate shank outside the region of the predetermined breaking point and which for forming clamping of the blind rivet sleeve on the shank in the region of the predetermined breaking point when the blind rivet sleeve is oriented coaxially to the shank of the blind rivet mandrel is greater than the radial extent of the bore of the blind rivet sleeve , characterised in that at least the transitions between the predetermined breaking point and the shank which face the head of the blind rivet mandrel are designed in flowing manner.
A method of measuring temperature using a single-electron device comprising a quantum dot , a charge reservoir coupled to the quantum dot via a tunnel barrier and a gate capacitively coupled to the quantum dot, the single-electron device capable of exhibiting Coloumb blockade, the method comprising: varying a gate voltage applied to the gate around a given gate voltage at which electrochemical level of the quantum dot and electrochemical level of the reservoir are equal and measuring corresponding values of a voltage-dependent term of differential capacitance of the quantum dot and the reservoir as seen from the gate or measuring a phase shift of a reflected signal obtained using reflectometry; measuring a full width half maximum FWHM of the voltage-dependent term of the differential capacitance or the phase shift as a function of gate voltage; and converting the full width half maximum value into a temperature. varying a gate voltage applied to the gate around a given gate voltage at which electrochemical level of the quantum dot and electrochemical level of the reservoir are equal and measuring corresponding values of a voltage-dependent term of differential capacitance of the quantum dot and the reservoir as seen from the gate or measuring a phase shift of a reflected signal obtained using reflectometry; measuring a full width half maximum FWHM of the voltage-dependent term of the differential capacitance or the phase shift as a function of gate voltage; and converting the full width half maximum value into a temperature.