mhurhangee/patent-ind-claim-en huggingface dataset:
A head for a razor handle , the head comprising: a cartridge engaging end configured to receive a razor cartridge ; and an attachment end comprising a stem and at least one protrusion , the at least one protrusion being configured to interact with a handle body to facilitate attachment of the attachment end thereto; wherein the stem defines a centerline (C2) and the protrusion extends away from the stem and the centerline (C2), characterized in that the attachment end further comprises a pair of posts disposed on opposite sides of the stem . a cartridge engaging end configured to receive a razor cartridge ; and an attachment end comprising a stem and at least one protrusion , the at least one protrusion being configured to interact with a handle body to facilitate attachment of the attachment end thereto; wherein the stem defines a centerline (C2) and the protrusion extends away from the stem and the centerline (C2), characterized in that the attachment end further comprises a pair of posts disposed on opposite sides of the stem .
A method for determining functional significance of a coronary arterial stenosis or lesion in an arterial vessel of a patient comprising: determining an area of interest of a coronary arterial network of the patient; obtaining a computed tomography (CT) scan of the patient during an angiogram procedure, resulting in data on the area of interest; using the data obtained from the CT scan to calculate an arterial input function (AIF) for the area of interest; using the data obtained from the CT scan to determine contrast distribution and transluminal attenuation gradient (TAG) for the area of interest; calculating an average flow rate ( Q ) using contrast distribution, TAG, and AIF; and, modeling coronary flow velocity for the area of interest of the arterial network using transluminal attenuation flow encoding (TAFE); wherein the calculation of the average flow rate ( Q ) is referred to as the transluminal attenuation flow encoding (TAFE), and determined according to the formula Q ̅ = A ̅ − TAG * ⋅ T d wherein A is an average cross sectional area of the arterial vessel, and T d is a time-delay between the arrival of a bolus and a maximum enhancement, TAG ∗ is TAG normalized by the density rise at the ostium using the AIF. determining an area of interest of a coronary arterial network of the patient; obtaining a computed tomography (CT) scan of the patient during an angiogram procedure, resulting in data on the area of interest; using the data obtained from the CT scan to calculate an arterial input function (AIF) for the area of interest; using the data obtained from the CT scan to determine contrast distribution and transluminal attenuation gradient (TAG) for the area of interest; calculating an average flow rate ( Q ) using contrast distribution, TAG, and AIF; and, modeling coronary flow velocity for the area of interest of the arterial network using transluminal attenuation flow encoding (TAFE); wherein the calculation of the average flow rate ( Q ) is referred to as the transluminal attenuation flow encoding (TAFE), and determined according to the formula Q ̅ = A ̅ − TAG * ⋅ T d wherein A is an average cross sectional area of the arterial vessel, and T d is a time-delay between the arrival of a bolus and a maximum enhancement, TAG ∗ is TAG normalized by the density rise at the ostium using the AIF.
Method for contactless communication between a communicating object (OC) and a communication device (DC j ) in order to implement a transaction, characterized in that the method comprises, on the communicating object located in an area (Z) in which said transaction is implemented, autonomous execution of the following: - receiving (S5) at least one pairing request from one or more pairing devices (DA k ) associated with said area, when the communicating object has determined (S3) at least one item of information in relation to the use context of the communicating object and a location (LOC k ) associated with at least one of the pairing devices (DA k ), - when a pairing device (DA c ) identified (S6) in said at least one received pairing request corresponds (S7) to said at least one pairing device (DA k ) associated with said area and the location (LOC k ) associated with said at least one pairing device (DA k ) corresponds to the location of the communicating object (OC) in said area, pairing (S9) with the communication device (DC j ), said communication device being associated with the identified pairing device (DA c ). - receiving (S5) at least one pairing request from one or more pairing devices (DA k ) associated with said area, when the communicating object has determined (S3) at least one item of information in relation to the use context of the communicating object and a location (LOC k ) associated with at least one of the pairing devices (DA k ), - when a pairing device (DA c ) identified (S6) in said at least one received pairing request corresponds (S7) to said at least one pairing device (DA k ) associated with said area and the location (LOC k ) associated with said at least one pairing device (DA k ) corresponds to the location of the communicating object (OC) in said area, pairing (S9) with the communication device (DC j ), said communication device being associated with the identified pairing device (DA c ).
An inductive proximity switch , comprising a transmitter coil , a receiver coil , the receiver comprises two symmetrical segments with opposite orientation that are connected in series, a circuit configured to excite the transmitter coil , a signal processing unit coupled to receive a received signal from the receiver coil and configured to process the received signal and provide an indication of whether the position of a target is to one side or the other of a switching point between the two symmetrical segments, wherein the circuit includes an oscillator configured to excite the transmitter coil , thereby inducing a voltage in the receiver coil , wherein the transmitter coil surrounds the segments of the receiver coil or the transmitter coil is surrounded by the segments of the receiver coil , and wherein the signal processing unit includes a hysteresis comparator that provides the indication of the position of the target relative to the switching point.
A biomagnetism measuring device for measuring biomagnetism simultaneously with a plurality of magnetic sensors , wherein: the plurality of magnetic sensors is held by a holder portion so as to have different measuring directions, and which holder portion is provided with: a first holder portion in which the plurality of magnetic sensors is arranged two-dimensionally at positions in a (x-y) coordinate substantially parallel to a body surface of a living organism; a second holder portion in which the plurality of magnetic sensors is arranged two-dimensionally at positions in a coordinate different from the (x-y) coordinate; a third holder portion in which the plurality of magnetic sensors is arranged two-dimensionally; the plurality of magnetic sensors is provided at the holder portion so as to be capable of measuring biomagnetism of multiple sites simultaneously; the plurality of magnetic sensors comprises a sensor that detects the biomagnetism in a thermal environment of - 10°C to 250°C; and characterized in that , the holder portion holds the plurality of magnetic sensors of which detection surfaces are exposed; and an opening/closing mechanism that enables the third holder portion to open and close with respect to the first holder portion or the second holder portion ; and a moving mechanism that enables the third holder portion to move toward the first holder portion or the second holder portion . the plurality of magnetic sensors is held by a holder portion so as to have different measuring directions, and which holder portion is provided with: a first holder portion in which the plurality of magnetic sensors is arranged two-dimensionally at positions in a (x-y) coordinate substantially parallel to a body surface of a living organism; a second holder portion in which the plurality of magnetic sensors is arranged two-dimensionally at positions in a coordinate different from the (x-y) coordinate; a third holder portion in which the plurality of magnetic sensors is arranged two-dimensionally; the plurality of magnetic sensors is provided at the holder portion so as to be capable of measuring biomagnetism of multiple sites simultaneously; the plurality of magnetic sensors comprises a sensor that detects the biomagnetism in a thermal environment of - 10°C to 250°C; and characterized in that , the holder portion holds the plurality of magnetic sensors of which detection surfaces are exposed; and an opening/closing mechanism that enables the third holder portion to open and close with respect to the first holder portion or the second holder portion ; and a moving mechanism that enables the third holder portion to move toward the first holder portion or the second holder portion .
A blood test device for measuring the presence or concentration of a specific substance in blood based on a color reaction that occurs in a dry reagent phase impregnated with a reagent by bringing plasma separated from the blood into contact with the dry reagent phase, comprising: a first substrate with the first opening where the blood is to be added; a second substrate arranged opposite the first substrate , with a second opening to observe the color reaction; the dry reagent phase laminated on the second surface between the first substrate and the second substrate so that a part of the dry reagent phase is exposed from the second opening ; a plasma separation part formed by a porous sheet material and laminated on the dry reagent phase ; and a diffusion layer formed by a sheet of hydrophilic fibers and arranged on the plasma separation part so that a part of the diffusion layer is exposed from the first opening , wherein the area of a surface of the plasma separation part on the dry reagent phase side, the area being outside the section in contact with the dry reagent phase , is bonded to the second substrate . a first substrate with the first opening where the blood is to be added; a second substrate arranged opposite the first substrate , with a second opening to observe the color reaction; the dry reagent phase laminated on the second surface between the first substrate and the second substrate so that a part of the dry reagent phase is exposed from the second opening ; a plasma separation part formed by a porous sheet material and laminated on the dry reagent phase ; and a diffusion layer formed by a sheet of hydrophilic fibers and arranged on the plasma separation part so that a part of the diffusion layer is exposed from the first opening , wherein the area of a surface of the plasma separation part on the dry reagent phase side, the area being outside the section in contact with the dry reagent phase , is bonded to the second substrate .
A synthetic peptide comprising sequence of SEQ ID NO: 2, wherein the peptide is glycosylated at positions Asn301 and Asn 332, according to HXB2 numbering, with Man 9 GlcNAc 2 , and wherein the peptide is cyclic via endogenous cysteines.
A wearable electronic device in the form of glasses, comprising: a first sensor configured to sense an illuminance; a memory configured to store content; an augmented reality display configured to display the content in a virtual display region through a glass plate of the wearable electronic device; and a processor configured to: identify an ambient illuminance of the wearable electronic device using the first sensor, in response to identifying that the ambient illuminance is lower than a preset illuminance, adjust a display position of the content in the virtual display region such that the content is displayed in a first display region corresponding to a first field of view, FOV, of a user narrowed according to the ambient illuminance, and in response to identifying that the ambient illuminance is higher than the preset illuminance, adjust the display position of the content in the virtual display region such that the content is displayed in a second display region corresponding to a second FOV of the user broadened according to the ambient illuminance, the second FOV having a broader view angle and a shorter focal length than the first FOV. a first sensor configured to sense an illuminance; a memory configured to store content; an augmented reality display configured to display the content in a virtual display region through a glass plate of the wearable electronic device; and a processor configured to: identify an ambient illuminance of the wearable electronic device using the first sensor, in response to identifying that the ambient illuminance is lower than a preset illuminance, adjust a display position of the content in the virtual display region such that the content is displayed in a first display region corresponding to a first field of view, FOV, of a user narrowed according to the ambient illuminance, and in response to identifying that the ambient illuminance is higher than the preset illuminance, adjust the display position of the content in the virtual display region such that the content is displayed in a second display region corresponding to a second FOV of the user broadened according to the ambient illuminance, the second FOV having a broader view angle and a shorter focal length than the first FOV. identify an ambient illuminance of the wearable electronic device using the first sensor, in response to identifying that the ambient illuminance is lower than a preset illuminance, adjust a display position of the content in the virtual display region such that the content is displayed in a first display region corresponding to a first field of view, FOV, of a user narrowed according to the ambient illuminance, and in response to identifying that the ambient illuminance is higher than the preset illuminance, adjust the display position of the content in the virtual display region such that the content is displayed in a second display region corresponding to a second FOV of the user broadened according to the ambient illuminance, the second FOV having a broader view angle and a shorter focal length than the first FOV.
An audio decoder (200; 400) for providing a decoded audio information (220; 412) on the basis of an encoded audio information (210;410), the audio decoder comprising: an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; the audio decoder is characterised in that the error concealment (240;480;600) is configured to obtain an information about an intensity of a deterministic signal component in one or more audio frames preceding a lost audio frame, and wherein the error concealment is configured to compare the information about an intensity of a deterministic signal component in one or more audio frames preceding a lost audio frame with a threshold value, to decide whether to input a deterministic time domain excitation signal with the addition of a noise like time domain excitation signal into an LPC synthesis , or whether to input only a noise time domain excitation signal into the LPC synthesis. an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; the audio decoder is characterised in that the error concealment (240;480;600) is configured to obtain an information about an intensity of a deterministic signal component in one or more audio frames preceding a lost audio frame, and wherein the error concealment is configured to compare the information about an intensity of a deterministic signal component in one or more audio frames preceding a lost audio frame with a threshold value, to decide whether to input a deterministic time domain excitation signal with the addition of a noise like time domain excitation signal into an LPC synthesis , or whether to input only a noise time domain excitation signal into the LPC synthesis.
A locking device for a symmetric cylindrical body fixing a semi-finished product to a workstation, comprising: - an annular locking body with a plurality of movable engagement jaws , and which in turn comprises a base plate which supports a cam mechanism for moving in a radial direction said plurality of movable engagement jaws , - said cam mechanism comprising a rotatable jaw supporting ring , which is adapted to be rotated by means of a threaded actuation element , which is screwed into a corresponding hole in said base plate and is designed to act on an operation tab which extends from said rotatable jaw supporting ring , - said threaded actuation element comprising a central portion having a reduced cross-section which is adapted to accommodate the operation tab of the jaw supporting ring , characterized in that said operation tab is pivotable and extends from a cylindrical insert that is inserted so that it can pivot within a complementarily shaped seat formed in the rotatable jaw supporting ring , said operation tab being adapted to contact alternatively two opposite planar surfaces formed by corresponding shoulders of the threaded actuation element which face said central portion having a reduced cross-section . - an annular locking body with a plurality of movable engagement jaws , and which in turn comprises a base plate which supports a cam mechanism for moving in a radial direction said plurality of movable engagement jaws , - said cam mechanism comprising a rotatable jaw supporting ring , which is adapted to be rotated by means of a threaded actuation element , which is screwed into a corresponding hole in said base plate and is designed to act on an operation tab which extends from said rotatable jaw supporting ring , - said threaded actuation element comprising a central portion having a reduced cross-section which is adapted to accommodate the operation tab of the jaw supporting ring ,
Apparatus for generating a sound field description from an input signal comprising one or more channels, the apparatus comprising: an input signal analyzer for obtaining diffuseness data from the input signal; a sound component generator for generating, from the input signal, one or more sound field components of a first group of sound field components having for each sound field component a direct component and a diffuse component, and for generating, from the input signal, a second group of sound field components having only a direct component, wherein the sound component generator is configured to perform an energy compensation when generating the first group of sound field components, the energy compensation depending on the diffuseness data and at least one of a number of sound field components in the second group, a number of diffuse components in the first group, a maximum order of sound field components of the first group and a maximum order of sound field components of the second group. an input signal analyzer for obtaining diffuseness data from the input signal; a sound component generator for generating, from the input signal, one or more sound field components of a first group of sound field components having for each sound field component a direct component and a diffuse component, and for generating, from the input signal, a second group of sound field components having only a direct component, wherein the sound component generator is configured to perform an energy compensation when generating the first group of sound field components, the energy compensation depending on the diffuseness data and at least one of a number of sound field components in the second group, a number of diffuse components in the first group, a maximum order of sound field components of the first group and a maximum order of sound field components of the second group.
A secondary high energy density lithium cell, comprising: a cathode comprising a high voltage cathode active material; a lithium metal anode; and a non-aqueous electrolyte, wherein the non-aqueous electrolyte comprises: an organic solvent; an imide salt with a fluorosulfonyl group having a water content below 50ppm; and a perchlorate salt, wherein the electrolyte is electrochemically stable at operating voltages greater than 4.2V; and wherein the perchlorate salt has a concentration between 0.05M and 0.50M of the organic solvent. a cathode comprising a high voltage cathode active material; a lithium metal anode; and a non-aqueous electrolyte, wherein the non-aqueous electrolyte comprises: an organic solvent; an imide salt with a fluorosulfonyl group having a water content below 50ppm; and a perchlorate salt, wherein the electrolyte is electrochemically stable at operating voltages greater than 4.2V; and wherein the perchlorate salt has a concentration between 0.05M and 0.50M of the organic solvent. an organic solvent; an imide salt with a fluorosulfonyl group having a water content below 50ppm; and a perchlorate salt, wherein the electrolyte is electrochemically stable at operating voltages greater than 4.2V; and wherein the perchlorate salt has a concentration between 0.05M and 0.50M of the organic solvent.