mhurhangee/patent-ind-claim-en huggingface dataset:
A system for determining prioritisation values for two or more sounds within an audio clip, the system comprising: a feature extraction unit operable to extract characteristic features from the two or more sounds; a feature combination unit operable to generate a combined mix comprising extracted features from the two or more sounds; an audio assessment unit operable to identify the contribution of one or more of the features to the combined mix; a feature classification unit operable to assign a saliency score to each of the features in the combined mix; and an audio prioritisation unit operable to determine relative priority values for the two or more sounds in dependence upon the assigned saliency scores for each of one or more features of the sounds, characterised in that : one or more of the units is operable to utilise a machine learning model, and wherein: the feature combination unit is operable to generate successive iterations of combined mixes, the audio assessment unit is operable to identify the contribution of one or more features in each of the combined mixes, and the machine learning model is trained using the combined mixes and audio assessments as an input. a feature extraction unit operable to extract characteristic features from the two or more sounds; a feature combination unit operable to generate a combined mix comprising extracted features from the two or more sounds; an audio assessment unit operable to identify the contribution of one or more of the features to the combined mix; a feature classification unit operable to assign a saliency score to each of the features in the combined mix; and an audio prioritisation unit operable to determine relative priority values for the two or more sounds in dependence upon the assigned saliency scores for each of one or more features of the sounds, characterised in that : one or more of the units is operable to utilise a machine learning model, and wherein: the feature combination unit is operable to generate successive iterations of combined mixes, the audio assessment unit is operable to identify the contribution of one or more features in each of the combined mixes, and the machine learning model is trained using the combined mixes and audio assessments as an input. one or more of the units is operable to utilise a machine learning model, and wherein: the feature combination unit is operable to generate successive iterations of combined mixes, the audio assessment unit is operable to identify the contribution of one or more features in each of the combined mixes, and the machine learning model is trained using the combined mixes and audio assessments as an input.
Method for locating a V2X-enabled second vehicle by a V2X-enabled first vehicle , wherein - a request is sent from the first vehicle to the second vehicle via a V2X communication link , - sensor data from at least one sensor of the second vehicle is received from the first vehicle via the V2X communication link and evaluated, - at least one action is carried out by the first vehicle , - the second vehicle is located relative to the first vehicle if the at least one action of the first vehicle is detected based on the received sensor data of the at least one sensor of the second vehicle . - a request is sent from the first vehicle to the second vehicle via a V2X communication link , - sensor data from at least one sensor of the second vehicle is received from the first vehicle via the V2X communication link and evaluated, - at least one action is carried out by the first vehicle , - the second vehicle is located relative to the first vehicle if the at least one action of the first vehicle is detected based on the received sensor data of the at least one sensor of the second vehicle .
A wearable device comprising an apparatus , the apparatus comprising: sensing means configured to sense a parameter; optical output means configured to provide an optical output signal indicative of data obtained by the sensing means; optical input means configured to receive an optical input signal and convert the optical input signal to electrical power; and storage means configured to store the electrical power obtained by the optical input means and enable the power to be provided to the sensing means and the optical output means; wherein the optical output means comprises one or more light emitting diodes and optical coupling means where the optical coupling means are configured to couple the apparatus to a processing device to enable data obtained by the sensing means to be transmitted to the processing device. sensing means configured to sense a parameter; optical output means configured to provide an optical output signal indicative of data obtained by the sensing means; optical input means configured to receive an optical input signal and convert the optical input signal to electrical power; and storage means configured to store the electrical power obtained by the optical input means and enable the power to be provided to the sensing means and the optical output means; wherein the optical output means comprises one or more light emitting diodes and optical coupling means where the optical coupling means are configured to couple the apparatus to a processing device to enable data obtained by the sensing means to be transmitted to the processing device.
A method of detecting impacts on a materials handling vehicle, comprising: receiving a g-force signal generated by an accelerometer mounted to the materials handling vehicle; comparing the received g-force signal to a selectable g-force limit threshold value; monitoring a speed of the materials handling vehicle based upon information from a speed sensor by periodically measuring a velocity of the materials handling vehicle; characterized in that the method further comprises: determining a gross vehicle weight of the materials handling vehicle; determining an acceleration from the monitored speed of the materials handling vehicle using at least two velocity measurements; calculating an impulse signal based upon the gross vehicle weight and the acceleration; comparing the impulse signal to a selectable impulse signal limit; and generating an impact signal where the received g-force signal exceeds the g-force limit threshold value and the impulse signal exceeds the impulse signal limit within a predetermined time period of each other. receiving a g-force signal generated by an accelerometer mounted to the materials handling vehicle; comparing the received g-force signal to a selectable g-force limit threshold value; monitoring a speed of the materials handling vehicle based upon information from a speed sensor by periodically measuring a velocity of the materials handling vehicle; characterized in that the method further comprises: determining a gross vehicle weight of the materials handling vehicle; determining an acceleration from the monitored speed of the materials handling vehicle using at least two velocity measurements; calculating an impulse signal based upon the gross vehicle weight and the acceleration; comparing the impulse signal to a selectable impulse signal limit; and generating an impact signal where the received g-force signal exceeds the g-force limit threshold value and the impulse signal exceeds the impulse signal limit within a predetermined time period of each other. determining a gross vehicle weight of the materials handling vehicle; determining an acceleration from the monitored speed of the materials handling vehicle using at least two velocity measurements; calculating an impulse signal based upon the gross vehicle weight and the acceleration; comparing the impulse signal to a selectable impulse signal limit; and generating an impact signal where the received g-force signal exceeds the g-force limit threshold value and the impulse signal exceeds the impulse signal limit within a predetermined time period of each other.
A multipolar detection/stimulation microprobe of less than 1.5 French (0.5 mm) overall diameter, for implantation in the deep cerebral venous network, comprising a plurality of at least eight individually insulated lead wires twisted together, each lead wire comprising: - an electrically conductive micro core cable adapted to be connected proximally to a pole of a generator of an active implantable medical device; and - an insulation layer surrounding the core cable, and having at least one exposed area formed in the thickness of the insulation layer distally to form a detection/stimulation electrode of the microprobe, the microprobe further comprising a central support structure in the form of a surface of revolution, said central support structure being free of i) conducting wire and ii) central light, and wherein said plurality of conductor wires are configured as a layer of twisted winding of peripheral conductor wires carried by and circumferentially distributed over the central support structure. - an electrically conductive micro core cable adapted to be connected proximally to a pole of a generator of an active implantable medical device; and - an insulation layer surrounding the core cable, and having at least one exposed area formed in the thickness of the insulation layer distally to form a detection/stimulation electrode of the microprobe, the microprobe further comprising a central support structure in the form of a surface of revolution, said central support structure being free of i) conducting wire and ii) central light, and wherein said plurality of conductor wires are configured as a layer of twisted winding of peripheral conductor wires carried by and circumferentially distributed over the central support structure. the microprobe further comprising a central support structure in the form of a surface of revolution, said central support structure being free of i) conducting wire and ii) central light, and wherein said plurality of conductor wires are configured as a layer of twisted winding of peripheral conductor wires carried by and circumferentially distributed over the central support structure.
An image processing device that displays on a display a preview image of printing a print job containing multiple image layers, comprising: a controller configured to acquire a printing order of multiple image layers included in a print job, generate a preview image overlaying the multiple image layers according to the acquired printing order, and display the generated preview image on the display, wherein the controller makes the density of an object in the preview image, generated by overlaying multiple image layers, different based on the printing order, and the controller generates a preview image overlaying multiple image layers after applying a transparency process to each image layer. a controller configured to acquire a printing order of multiple image layers included in a print job, generate a preview image overlaying the multiple image layers according to the acquired printing order, and display the generated preview image on the display, wherein the controller makes the density of an object in the preview image, generated by overlaying multiple image layers, different based on the printing order, and the controller generates a preview image overlaying multiple image layers after applying a transparency process to each image layer.
An apparatus comprising: a data source for receiving a plurality of data items; an output configured to continually provide a data collector with the data items; a storage for buffering the first data items; a root of trust circuitry configured to generate a cryptographically verifiable integrity claim based on current hardware and software configuration of the apparatus; at least one processor configured to at least: form second data by combining at least the cryptographically verifiable integrity claim and an amount of the data items; form a hash from at least the second data; cause the root of trust circuitry to form a first signature from at least the hash; form third data by combining at least the second data, the hash and the first signature; and cause the output to provide the data collector with a secured transmission comprising the third data. a data source for receiving a plurality of data items; an output configured to continually provide a data collector with the data items; a storage for buffering the first data items; a root of trust circuitry configured to generate a cryptographically verifiable integrity claim based on current hardware and software configuration of the apparatus; at least one processor configured to at least: form second data by combining at least the cryptographically verifiable integrity claim and an amount of the data items; form a hash from at least the second data; cause the root of trust circuitry to form a first signature from at least the hash; form third data by combining at least the second data, the hash and the first signature; and cause the output to provide the data collector with a secured transmission comprising the third data. form second data by combining at least the cryptographically verifiable integrity claim and an amount of the data items; form a hash from at least the second data; cause the root of trust circuitry to form a first signature from at least the hash; form third data by combining at least the second data, the hash and the first signature; and cause the output to provide the data collector with a secured transmission comprising the third data.
A method for classifying superabsorbent particles, in the course of which the superabsorbent particles are put onto a top sieve deck of a sieving machine comprising at least two sieve decks having different hole sizes, the superabsorbent particles which are smaller than the holes in the respective sieve deck falling through the holes and the superabsorbent particles that remain on the sieve deck being removed via an extraction point , balls being positioned below each sieve deck which are propelled upwards by the movement of the sieving machine and from below impact the respective sieve deck lying above, wherein the balls have a diameter in the range from 20 to 60 mm, a dynamic stiffness at 1 Hz in the range from 40 to 100 N/mm, and damping in the range of 1% to 4%, and, to determine the stiffness and damping, the balls being individually subjected to loading by compressive deformation between -0.5 mm and -1.5 mm between two plates with a frequency of 1 Hz, and a force-deformation diagram being recorded, resulting in a hysteresis loop, and the stiffness is the gradient of the force-deformation curve and damping is the ratio of the area inside the hysteresis loop to the rectangular area defined by maximum deformation and maximum force.
A product comprising a follicle stimulating hormone (FSH) for use in the treatment of infertility in a patient having serum AMH level of 0.05 pmol/L or above wherein the treatment is characterised in that a daily dose of 15 μg to 24 μg human derived recombinant FSH is administered.
Suspension sheet for a vehicle seat cushion, characterized in that it comprises a plastic film , a front attachment element and a rear attachment element that are overmoulded in said film , and in that the rear attachment element comprises a bar along which at least one curved segment emerges and partially delimits a cylindrical inner channel, a free end of said segment having a bead extending along said segment and protruding inside the latter so as to reduce the cross section of said inner channel.
A surface treatment method for a water-absorbing resin comprising three steps of: 1) a humidifying and mixing step for mixing a base polymer and a surface cross-linking agent solution to obtain a "humidified substance"; 2) a pretreatment step for raising temperature of said humidified substance to obtain a "pretreated substance"; and 3) a surface cross-linking reaction step for cross-linking said pretreated substance to obtain a surface cross-linked "water-absorbing resin"; wherein dew point in the pretreatment step of the above 2) is from 50°C to 95°C, and temperature of said humidified substance is raised from temperature below the dew point up to a temperature of 10°C higher than the dew point, and wherein the pretreatment step and the surface cross-linking reaction step are performed in one apparatus, and the surface cross-linking reaction is performed by raising temperature of the humidified substance. 1) a humidifying and mixing step for mixing a base polymer and a surface cross-linking agent solution to obtain a "humidified substance"; 2) a pretreatment step for raising temperature of said humidified substance to obtain a "pretreated substance"; and 3) a surface cross-linking reaction step for cross-linking said pretreated substance to obtain a surface cross-linked "water-absorbing resin";
A computer-implemented method comprising: receiving a request communication from a user device , wherein the request communication includes content, and wherein the request communication is associated with a request location; identifying one or more object tags related to the content, wherein an object tag has a corresponding tag weight; detecting the request location from data associated with the request communication; identifying one or more objects associated with the one or more object tags and associated with a similar location to the request location, wherein the one or more objects are associated with one or more resources; dynamically identifying the one or more resources, wherein the one or more resources have one or more characteristics corresponding to an object of the one or more objects; dynamically assigning values to the one or more resources based on the tag weights corresponding to the object tags associated with the one or more objects, and the one or more characteristics corresponding to an object of the one or more objects; selecting a resource based on the value assigned to the resource, wherein the selected resource is associated with a resource device ; and establishing a communication channel between the user device and the resource device , wherein the resource is thereafter transmitted in response to the request communication. receiving a request communication from a user device , wherein the request communication includes content, and wherein the request communication is associated with a request location; identifying one or more object tags related to the content, wherein an object tag has a corresponding tag weight; detecting the request location from data associated with the request communication; identifying one or more objects associated with the one or more object tags and associated with a similar location to the request location, wherein the one or more objects are associated with one or more resources; dynamically identifying the one or more resources, wherein the one or more resources have one or more characteristics corresponding to an object of the one or more objects; dynamically assigning values to the one or more resources based on the tag weights corresponding to the object tags associated with the one or more objects, and the one or more characteristics corresponding to an object of the one or more objects; selecting a resource based on the value assigned to the resource, wherein the selected resource is associated with a resource device ; and establishing a communication channel between the user device and the resource device , wherein the resource is thereafter transmitted in response to the request communication.
A method for wireless communication, comprising: identifying a first service for transmission of first service data to a user equipment, UE, during a first transmission time interval, TTI; identifying a second service having a second TTI that is shorter than the first TTI for transmitting second service data; transmitting a first transmission of the first service to the UE during the first TTI; puncturing a first portion of the first transmission with a second transmission of the second service, a duration of the first portion corresponding to the second TTI; and transmitting the first portion of the first transmission to the UE during a subsequent portion of the first TTI, wherein the first portion of the first transmission is transmitted during the subsequent portion of the first TTI concurrently with a second portion of the first transmission that is transmitted in the subsequent portion of the first TTI. identifying a first service for transmission of first service data to a user equipment, UE, during a first transmission time interval, TTI; identifying a second service having a second TTI that is shorter than the first TTI for transmitting second service data; transmitting a first transmission of the first service to the UE during the first TTI; puncturing a first portion of the first transmission with a second transmission of the second service, a duration of the first portion corresponding to the second TTI; and transmitting the first portion of the first transmission to the UE during a subsequent portion of the first TTI, wherein the first portion of the first transmission is transmitted during the subsequent portion of the first TTI concurrently with a second portion of the first transmission that is transmitted in the subsequent portion of the first TTI.
A method of manufacturing an object, comprising: depositing a first plurality of layers of a construction material; selectively binding portions of each deposited layer of the first plurality of layers to form a green support body ; depositing a second plurality of layers of a construction material; selectively binding portions of each deposited layer of the second plurality of layers to form a green object body supported by the green support body, the support body being separate from the object body; cleaning the green object body and the green support body;and sintering the green support body together with the green object body supported by the green support body, wherein the support body has a supporting surface for supporting the object body, the supporting surface providing an intermittent contact surface for contacting with the object body during the sintering. depositing a first plurality of layers of a construction material; selectively binding portions of each deposited layer of the first plurality of layers to form a green support body ; depositing a second plurality of layers of a construction material; selectively binding portions of each deposited layer of the second plurality of layers to form a green object body supported by the green support body, the support body being separate from the object body; cleaning the green object body and the green support body;and sintering the green support body together with the green object body supported by the green support body, wherein the support body has a supporting surface for supporting the object body, the supporting surface providing an intermittent contact surface for contacting with the object body during the sintering.