mhurhangee/patent-ind-claim-en huggingface dataset:
A radio communication device , comprising: an imaging element configured to repeatedly generate a captured image; a first controller configured to estimate eye-positions of eyes of a user based on the captured image; and a first communication module configured to transmit positional information indicating eye-positions of the eyes of the user, to a head-up display configured to display a parallax image based on the positional information, characterized in that the radio communication device comprises a motion sensor configured to detect a parameter indicating a motion of the radio communication device , the first controller causes the imaging element to generate a captured image based on the parameter indicating the motion, in a case where the parameter indicating the motion is less than a threshold, the first controller causes the imaging element to generate a captured image after a first period, and in a case where the parameter indicating the motion is equal to or greater than the threshold, the first controller causes the imaging element to generate a captured image after a second period shorter than the first period. an imaging element configured to repeatedly generate a captured image; a first controller configured to estimate eye-positions of eyes of a user based on the captured image; and a first communication module configured to transmit positional information indicating eye-positions of the eyes of the user, to a head-up display configured to display a parallax image based on the positional information, characterized in that the radio communication device comprises a motion sensor configured to detect a parameter indicating a motion of the radio communication device , the first controller causes the imaging element to generate a captured image based on the parameter indicating the motion, in a case where the parameter indicating the motion is less than a threshold, the first controller causes the imaging element to generate a captured image after a first period, and in a case where the parameter indicating the motion is equal to or greater than the threshold, the first controller causes the imaging element to generate a captured image after a second period shorter than the first period.
An interventional medical apparatus for performing a medical procedure, comprising: a sensor adapted to convert an ultrasonic signal of an ultrasound probe incident thereon into an electrical signal; and a first wireless transceiver configured to receive the electrical signal from the sensor , and to transmit the electrical signal to a second wireless transceiver remotely located from the interventional medical apparatus ; wherein the electrical signal transmitted by the first wireless transceiver is partially processed prior to transmission to the second wireless transceiver , and wherein the electrical signal transmitted by the first wireless transceiver is transmitted through a channel that has a fixed and known latency; wherein the partially processed electrical signal transmitted by the first wireless transceiver comprises an amplified and filtered electrical signal from the sensor provided at the output of a signal conditioning module ; and wherein the partially processed electrical signal transmitted by the first wireless transceiver is a clipped portion of the electrical signal from the sensor that includes only the electrical signal in and around the maximum signal intensity location for each image frame of the ultrasound probe. a sensor adapted to convert an ultrasonic signal of an ultrasound probe incident thereon into an electrical signal; and a first wireless transceiver configured to receive the electrical signal from the sensor , and to transmit the electrical signal to a second wireless transceiver remotely located from the interventional medical apparatus ; wherein the electrical signal transmitted by the first wireless transceiver is partially processed prior to transmission to the second wireless transceiver , and wherein the electrical signal transmitted by the first wireless transceiver is transmitted through a channel that has a fixed and known latency; wherein the partially processed electrical signal transmitted by the first wireless transceiver comprises an amplified and filtered electrical signal from the sensor provided at the output of a signal conditioning module ; and wherein the partially processed electrical signal transmitted by the first wireless transceiver is a clipped portion of the electrical signal from the sensor that includes only the electrical signal in and around the maximum signal intensity location for each image frame of the ultrasound probe.
Device for controlling the opening of at least one door of a railway vehicle , comprising means for controlling the opening of the doors ; - the control device comprising at least one detection unit , each detection unit being associated with a respective door , each detection unit comprising at least two devices (CH1, CH2, CH3) for detecting the presence of a platform (20; 55) in a detection zone opposite the corresponding door ; - each of the detection units being capable of emitting a platform detection signal towards the control means ; - the control means being configured to authorise the opening of the door when said platform detection signal is received, characterised in that : - each of the detection units is capable of emitting the platform detection signal when at least two of the detection devices (CH1, CH2, CH3) detect the presence of a platform (20; 55) in the detection zone - each detection device (CH1, CH2, CH3) comprises at least two sensors for sensing the presence of an object in the detection zone , - considering the totality of the sensors of the various detection devices (CH1, CH2, CH3) of one detection unit , those sensors are substantially aligned in a longitudinal direction (X-X), the sensors of one detection device (CH1, CH2, CH3) not being adjacent. - the control device comprising at least one detection unit , each detection unit being associated with a respective door , each detection unit comprising at least two devices (CH1, CH2, CH3) for detecting the presence of a platform (20; 55) in a detection zone opposite the corresponding door ; - each of the detection units being capable of emitting a platform detection signal towards the control means ; - the control means being configured to authorise the opening of the door when said platform detection signal is received, - each of the detection units is capable of emitting the platform detection signal when at least two of the detection devices (CH1, CH2, CH3) detect the presence of a platform (20; 55) in the detection zone - each detection device (CH1, CH2, CH3) comprises at least two sensors for sensing the presence of an object in the detection zone , - considering the totality of the sensors of the various detection devices (CH1, CH2, CH3) of one detection unit , those sensors are substantially aligned in a longitudinal direction (X-X), the sensors of one detection device (CH1, CH2, CH3) not being adjacent.
A wireless tire monitoring system for a vehicle, the wireless tire monitoring system includes: a) at least one sensor unit disposed at each tire of the vehicle for measuring at least one parameter relating to the condition of the tire; b) a mobile communication unit in communication with the sensor unit , in-car unit or associated units, components or devices and distinct server or storage media or internet cloud ; c) the distinct server or storage media or internet cloud for storing all information relating to encryption key, user information or identities, and the parameters concerning to the condition of the tire measured by the sensor unit ; characterized in that the tire monitoring system is adapted for transmitting, storing, receiving and retrieving, pairing, sharing or broadcasting encryption data or related information within the at least one sensor unit , in-car unit or associated units, components or devices with mobile communication unit and the distinct server or storage media or the internet cloud , in a parallel communication; wherein the mobile communication unit and the in-car unit involve firmware or software application ("APP") that is adapted for used in monitoring, observing and controlling all pairing or sharing functions and related information, including the encryption data or related information in between the sensor unit(s) , in-car unit or associated units; and the distinct server or storage media or internet cloud , such that the firmware or software application ("APP") is adapted to allow the user to substitute, change, switch to other different mobile communication unit or device, or share with other mobile communication unit or device, by obtaining all pairing, encryption data, user or identity information, and parameters concerning to the condition of the tire from the distinct server or storage media or internet cloud into the substitute or other mobile communication unit or device without the need for the substitute or other mobile communication unit or device to reinitiate the pairing process with the sensor unit(s) , in-car unit or associated units, components or devices. a) at least one sensor unit disposed at each tire of the vehicle for measuring at least one parameter relating to the condition of the tire; b) a mobile communication unit in communication with the sensor unit , in-car unit or associated units, components or devices and distinct server or storage media or internet cloud ; c) the distinct server or storage media or internet cloud for storing all information relating to encryption key, user information or identities, and the parameters concerning to the condition of the tire measured by the sensor unit ;
A solid end mill being rotatable around a central rotational axis (R), the solid end mill having a cutting portion and a shank portion , the cutting portion including a plurality flutes with peripheral cutting edges formed between associated rake surfaces and clearance surfaces , wherein each peripheral cutting edge , in a view perpendicular to the central rotational axis and toward the rake surface , is forming: - a single convexly curved lobe cutting edge portion disposed along an axial front part of the cutting portion , - a single neck cutting edge portion connected to the convexly curved lobe cutting edge portion , wherein the neck cutting edge portion extends at a smaller radial distance (D N ) to the central rotational axis (R) compared to the convexly curved lobe cutting edge portion and is disposed along an axial intermediate part of the cutting portion , and - a shoulder cutting edge portion connected to the neck cutting edge portion , wherein the shoulder cutting edge portion extends at a larger radial distance (Ds) to the central rotational axis (R) compared to the neck cutting edge portion and is disposed along an axial rear part of the cutting portion , wherein the rake surface , as seen in cross-sections perpendicular to the central rotational axis (R), is forming positive radial rake angles α L , N , S along the entire extension of the peripheral cutting edge , characterised in that each peripheral cutting edge , in a view perpendicular to the central rotational axis (R) and toward the clearance surface , extends at a linear and constant axial inclination angle θ within the range 5° ≤ θ ≤ 15° in relation to the central rotational axis (R). - a single convexly curved lobe cutting edge portion disposed along an axial front part of the cutting portion , - a single neck cutting edge portion connected to the convexly curved lobe cutting edge portion , wherein the neck cutting edge portion extends at a smaller radial distance (D N ) to the central rotational axis (R) compared to the convexly curved lobe cutting edge portion and is disposed along an axial intermediate part of the cutting portion , and - a shoulder cutting edge portion connected to the neck cutting edge portion , wherein the shoulder cutting edge portion extends at a larger radial distance (Ds) to the central rotational axis (R) compared to the neck cutting edge portion and is disposed along an axial rear part of the cutting portion , wherein the rake surface , as seen in cross-sections perpendicular to the central rotational axis (R), is forming positive radial rake angles α L , N , S along the entire extension of the peripheral cutting edge , characterised in that each peripheral cutting edge , in a view perpendicular to the central rotational axis (R) and toward the clearance surface , extends at a linear and constant axial inclination angle θ within the range 5° ≤ θ ≤ 15° in relation to the central rotational axis (R).
A fitness set for the practice of fitness, sport, rehabilitation or physiotherapy exercises, comprising: at least one weight , at least one shoe support for fastening the weight to a shoe of a user, and at least one body support for fastening the weight to the body of a user, wherein the weight has two first releasable snap-fit binding elements , one at each end, and the shoe support and the body support have at least one fitting with two second releasable snap-fit binding elements , one at each end, matching the two first releasable snap-fit binding elements of the weight , such that the weight may be releasably attached to the shoe support and to the body support , the shoe support comprising a support plate configured to be attached on the instep of the shoe with the shoelaces, the support plate being a fitting with the two second releasable snap-fit binding elements matching the two first releasable snap-fit binding elements of the weight . at least one weight , at least one shoe support for fastening the weight to a shoe of a user, and at least one body support for fastening the weight to the body of a user, wherein the weight has two first releasable snap-fit binding elements , one at each end, and the shoe support and the body support have at least one fitting with two second releasable snap-fit binding elements , one at each end, matching the two first releasable snap-fit binding elements of the weight , such that the weight may be releasably attached to the shoe support and to the body support , the shoe support comprising a support plate configured to be attached on the instep of the shoe with the shoelaces, the support plate being a fitting with the two second releasable snap-fit binding elements matching the two first releasable snap-fit binding elements of the weight .
A method for determining statistics for the Direction of Departure between a User Equipment, a UE, in a cellular system and a site for a base station which serves two or more cells in the cellular system and which is equipped with at least one antenna per served cell, the method comprising: - receiving by the base station measurement reports from the UE which include the strength of signals received by the UE from two or more of the cells which are served by the base station; the method further comprising, for at least one pair of cells served by the base station: - Determining whether or not the UE was limited in measuring the strength of the signals from one of the cells in the pair, wherein the UE is only capable of measuring signal strengths which differ from each other by less than a maximum difference and the UE is limited in measuring a weaker signal if the difference between the signals from two cells is greater than said maximum difference; - If the UE was limited, determining said statistics using the signal strengths from the cells in the pair, the cells' antenna gain towards the UE, and the maximum difference between the signal strengths from the cells in the pair; and - If the UE was not limited, determining said statistics using the signal strengths from the cells in the pair and differences in the cells' antenna gain towards the UE. - receiving by the base station measurement reports from the UE which include the strength of signals received by the UE from two or more of the cells which are served by the base station; - Determining whether or not the UE was limited in measuring the strength of the signals from one of the cells in the pair, wherein the UE is only capable of measuring signal strengths which differ from each other by less than a maximum difference and the UE is limited in measuring a weaker signal if the difference between the signals from two cells is greater than said maximum difference; - If the UE was limited, determining said statistics using the signal strengths from the cells in the pair, the cells' antenna gain towards the UE, and the maximum difference between the signal strengths from the cells in the pair; and - If the UE was not limited, determining said statistics using the signal strengths from the cells in the pair and differences in the cells' antenna gain towards the UE.
Method for transferring a mobile terminal (Tl) attached to a first access entity (RRH 1 ) of an operator (MNO1) to a second access entity (RRH 3 ), controlled by another operator (MNO3), of a set of access entities (RRH 1 , RRH 2 , RRH 3 ) controlled by at least two operators (MNO1, MNO2, MNO3) within a communication network , the transfer method, in accordance with handover techniques implemented by a control device for conveying data of the terminal (Tl), being characterized in that it comprises: - a step (E4, E6, E8) of receiving, from the entities (RRH 1 , RRH 2 , RRH 3 ) of the set, a connectivity message (M2, M3, M4) comprising at least one parameter relating to an estimate of the quality of transmission of the data between said terminal (Tl) and each said entity (RRH 1 , RRH 2 , RRH 3 ), - a step (E9) of determining an eligibility value relating to each entity (RRH 1 , RRH 2 , RRH 3 ), on the basis of the at least one parameter received and of a factor of cooperation between the first entity (RRH 1 ) and each other access entity (RRH 2 , RRH 3 ) of the set, said factor corresponding to a percentage of successful transfers between the entity (RRH 1 ) and each other entity (RRH2, RR3) in a past time interval, - a step (E10) of selecting the second entity (RRH 3 ) on the basis of the eligibility value determined, - a step (E11, E13) of sending, to the first entity (RRH 1 ) and to the second entity (RRH 3 ), a transfer message (M5) comprising a transfer instruction and furthermore comprising an identifier of the first access entity (RRH 1 ) and an identifier of the second access entity (RRH 3 ). - a step (E4, E6, E8) of receiving, from the entities (RRH 1 , RRH 2 , RRH 3 ) of the set, a connectivity message (M2, M3, M4) comprising at least one parameter relating to an estimate of the quality of transmission of the data between said terminal (Tl) and each said entity (RRH 1 , RRH 2 , RRH 3 ), - a step (E9) of determining an eligibility value relating to each entity (RRH 1 , RRH 2 , RRH 3 ), on the basis of the at least one parameter received and of a factor of cooperation between the first entity (RRH 1 ) and each other access entity (RRH 2 , RRH 3 ) of the set, said factor corresponding to a percentage of successful transfers between the entity (RRH 1 ) and each other entity (RRH2, RR3) in a past time interval, - a step (E10) of selecting the second entity (RRH 3 ) on the basis of the eligibility value determined, - a step (E11, E13) of sending, to the first entity (RRH 1 ) and to the second entity (RRH 3 ), a transfer message (M5) comprising a transfer instruction and furthermore comprising an identifier of the first access entity (RRH 1 ) and an identifier of the second access entity (RRH 3 ).
A computer implemented data processing method for a database management system, wherein the method comprises: - storing data in an intermediate data format comprising capturing data in datasets including data index and data record fields, dividing and storing the datasets in individual flat files known as databanks, - converting the intermediate data format into a production data format of at least two data volumes including a data index volume and a data record volume, wherein the data banks are sorted for eliminating duplicated records and then converted into an index file and data record file, wherein the data index is converted from intermediate format to production format and is stored in binary form with fixed length pointers to the data records in the data record file, - merging the at least two data volumes into one data volume, and - retrieving a data record from the one data volume by performing a search on the data index file, obtaining a data record location from a given pointer, and obtaining a data record length by subtracting the value of the given pointer from the value of the pointer for a next sequential data record, or if the given pointer is the last pointer, subtracting the value of the given pointer from the data volume length. - storing data in an intermediate data format comprising capturing data in datasets including data index and data record fields, dividing and storing the datasets in individual flat files known as databanks, - converting the intermediate data format into a production data format of at least two data volumes including a data index volume and a data record volume, wherein the data banks are sorted for eliminating duplicated records and then converted into an index file and data record file, wherein the data index is converted from intermediate format to production format and is stored in binary form with fixed length pointers to the data records in the data record file, - merging the at least two data volumes into one data volume, and - retrieving a data record from the one data volume by performing a search on the data index file, obtaining a data record location from a given pointer, and obtaining a data record length by subtracting the value of the given pointer from the value of the pointer for a next sequential data record, or if the given pointer is the last pointer, subtracting the value of the given pointer from the data volume length.
An active rocker aerodynamic shield integrated into an automated running board for a vehicle, comprising: an automated running board including a plurality of links for movement of a step board under predetermined conditions between a stowed position and at least one deployed position; at least one panel (16; 17a, 17b) forming the aerodynamic shield , the at least one panel (16; 17a, 17b) operably connected to the automated running board to automatically deploy and retract with the step board for improved aerodynamics under predetermined conditions. an automated running board including a plurality of links for movement of a step board under predetermined conditions between a stowed position and at least one deployed position; at least one panel (16; 17a, 17b) forming the aerodynamic shield , the at least one panel (16; 17a, 17b) operably connected to the automated running board to automatically deploy and retract with the step board for improved aerodynamics under predetermined conditions.