mhurhangee/ep-ind-claims huggingface dataset:
A method of providing a three-dimensional, 3D, ultrasound image along with an additional ultrasound acquisition, the method comprising: obtaining a 3D ultrasound image of a volume from an ultrasound imaging system comprising an ultrasound probe and an ultrasound probe tracker; obtaining, from the ultrasound imaging system, an additional ultrasound acquisition of a portion of interest of the volume; identifying a location of the additional ultrasound acquisition relative to the 3D ultrasound image; and after the steps of obtaining the 3D ultrasound image and obtaining the additional ultrasound acquisition: generating first display data for display of the 3D ultrasound image and not for display of the additional ultrasound acquisition; receiving a first user input; and in response to the first user input, generating second display data for display of the 3D ultrasound image and the additional ultrasound acquisition, with the display of the additional ultrasound acquisition being based on the location of the additional ultrasound acquisition, wherein the 3D ultrasound image and the additional ultrasound acquisition are obtained before the first display data and the second display data is generated. obtaining a 3D ultrasound image of a volume from an ultrasound imaging system comprising an ultrasound probe and an ultrasound probe tracker; obtaining, from the ultrasound imaging system, an additional ultrasound acquisition of a portion of interest of the volume; identifying a location of the additional ultrasound acquisition relative to the 3D ultrasound image; and after the steps of obtaining the 3D ultrasound image and obtaining the additional ultrasound acquisition: generating first display data for display of the 3D ultrasound image and not for display of the additional ultrasound acquisition; receiving a first user input; and in response to the first user input, generating second display data for display of the 3D ultrasound image and the additional ultrasound acquisition, with the display of the additional ultrasound acquisition being based on the location of the additional ultrasound acquisition, generating first display data for display of the 3D ultrasound image and not for display of the additional ultrasound acquisition; receiving a first user input; and in response to the first user input, generating second display data for display of the 3D ultrasound image and the additional ultrasound acquisition, with the display of the additional ultrasound acquisition being based on the location of the additional ultrasound acquisition, wherein the 3D ultrasound image and the additional ultrasound acquisition are obtained before the first display data and the second display data is generated.
A method of manufacturing a first screen comprising transparent portions and retroreflective portions, the method comprising the following successive steps: a) providing a first mold having a structured surface having a shape complementary to that of a second screen exhibiting protrusions in the shape of cube corners on substantially all its surface; b) partially polishing the structured surface of the first mold to form plateaus on top of the protrusions of said structured surface; and c) realizing the first screen using the first mold. a) providing a first mold having a structured surface having a shape complementary to that of a second screen exhibiting protrusions in the shape of cube corners on substantially all its surface; b) partially polishing the structured surface of the first mold to form plateaus on top of the protrusions of said structured surface; and c) realizing the first screen using the first mold.
A device for testing an analyte in a liquid sample, comprising: a test chamber configured to contain test components; a collecting chamber configured to collect the liquid sample; a piston chamber disposed between the test chamber and the collecting chamber; a piston with two ends, wherein the piston is disposed in the piston chamber; wherein one end of the piston, one end of the piston chamber and a wall of the piston chamber form a piston cavity, wherein the piston chamber has a first opening and a second opening, wherein the first opening is located between the collecting chamber and the piston cavity and is sealed by an outer edge of the piston when the piston is in a second position, and wherein the second opening is sealed by a resilient and puncturable sealing material, a puncturing component disposed outside the piston chamber, facing the sealing material and configured to pierce the sealing material; wherein when the piston moves from a first position to the second position, the first opening is sealed and continued movement of the piston makes the sealing material project toward the outside of the piston cavity, thereby the sealing material is pierced by the puncturing component to release the liquid sample from the piston cavity into the test chamber through the punctured sealing material. a test chamber configured to contain test components; a collecting chamber configured to collect the liquid sample; a piston chamber disposed between the test chamber and the collecting chamber; a piston with two ends, wherein the piston is disposed in the piston chamber; a puncturing component disposed outside the piston chamber, facing the sealing material and configured to pierce the sealing material;
A portable computing device, comprising: a single piece housing having a front opening and side walls that cooperate with a bottom portion having a curvature to form a cavity, the side walls having edges that conform with the appearance of the side walls and form an undercut geometry with respect to the cavity, the edges surrounding and defining an opening through which operational components are inserted and received by the cavity, wherein an interior surface of the bottom portion includes a plurality of steps, the plurality of steps varying a thickness of the bottom portion, and a cover disposed within and substantially filling the front opening, characterised by the plurality of steps being arranged in a terracing pattern and being suitable for mounting thereon an internal component on the interior surface of the bottom portion. a single piece housing having a front opening and side walls that cooperate with a bottom portion having a curvature to form a cavity, the side walls having edges that conform with the appearance of the side walls and form an undercut geometry with respect to the cavity, the edges surrounding and defining an opening through which operational components are inserted and received by the cavity, wherein an interior surface of the bottom portion includes a plurality of steps, the plurality of steps varying a thickness of the bottom portion, and a cover disposed within and substantially filling the front opening,
A sensor wire retention device comprising: a bobbin tube, wherein the bobbin tube defines a hollow interior configured to receive a probe assembly inserted therein; one or more coil elements (214, 216) wrapped around at least a portion of the bobbin tube; one or more washers attached around the bobbin tube, wherein each of the one or more washers defines one or more wire notches; a wire harness comprising one or more wires, wherein each of the one or more wires of the wire harness are disposed along the bobbin tube and the one or more coil elements (214, 216), and wherein each of the one or more wires of the wire harness are positioned within the one or more wire notches of the one or more washers and configured to be communicably coupled with the probe assembly inserted in the bobbin tube; and a return shield element disposed around the wires located within the one or more wire notches of the one or more washers, and comprising two, semi-cylindrical halves that each extend around a portion of the bobbin tube corresponding to the one or more wire notches, wherein the return shield element is configured to compress the one or more wires of the wire harness between the one or more washers and the return shield element so as to reduce strain experienced by the wires. a bobbin tube, wherein the bobbin tube defines a hollow interior configured to receive a probe assembly inserted therein; one or more coil elements (214, 216) wrapped around at least a portion of the bobbin tube; one or more washers attached around the bobbin tube, wherein each of the one or more washers defines one or more wire notches; a wire harness comprising one or more wires, wherein each of the one or more wires of the wire harness are disposed along the bobbin tube and the one or more coil elements (214, 216), and wherein each of the one or more wires of the wire harness are positioned within the one or more wire notches of the one or more washers and configured to be communicably coupled with the probe assembly inserted in the bobbin tube; and a return shield element disposed around the wires located within the one or more wire notches of the one or more washers, and comprising two, semi-cylindrical halves that each extend around a portion of the bobbin tube corresponding to the one or more wire notches, wherein the return shield element is configured to compress the one or more wires of the wire harness between the one or more washers and the return shield element so as to reduce strain experienced by the wires.
An ostomy device including an ostomy pouch having an entrance opening, a body attachment wafer having a through-going opening and a coupling layer, which couples the pouch to the body attachment wafer and has a central opening therein, said body attachment wafer includes a plastic film, which is coated with a layer of skin friendly adhesive on the side thereof distal to the ostomy pouch, wherein the coupling layer is affixed to the body attachment wafer along an attachment line extending around the central opening in the coupling layer, said attachment line being distanced from the central opening in the coupling layer, and the region around the entrance opening of the pouch is affixed to the coupling layer in a landing zone located between said attachment line and the opening in the body attachment wafer, characterized in that the inner periphery of the coupling layer is affixed to the body attachment wafer, the inner periphery of the coupling layer being distanced from the outer periphery of the through-going opening in the body attachment wafer.
A server apparatus communicably connected to a vehicle working in a predetermined area and a plurality of information terminals (40a-40d) respectively held by leaders arranged in the predetermined area, comprising: acquisition means for acquiring position information of the vehicle and position information of each of the plurality of information terminals (40a-40d); reception means for receiving abnormality detection information from the vehicle; selection means for selecting, in case where the reception means receives the abnormality detection information, among the plurality of information terminals (40a-40d), an information terminal existing within a predetermined range from the vehicle as a target information terminal to which abnormality of the vehicle is to be notified; the selection means is configured to select the target information terminal based on the pieces of position information acquired by the acquisition means; generation means for generating first abnormality notification information for notifying the abnormality of the vehicle to the selected target information terminal; andtransmission means for transmitting the first abnormality notification information generated by the generation means to the selected target information terminal; characterized in that the generation means is configured to generate, in a case where time when the reception means has received the abnormality detection information from the vehicle is outside working time of the vehicle, second abnormality notification information for making a notification of theft occurrence, and the transmission means is configured to transmit the generated second abnormality notification information to an information terminal of a manager instead of the target information terminal. reception means for receiving abnormality detection information from the vehicle; selection means for selecting, in case where the reception means receives the abnormality detection information, among the plurality of information terminals (40a-40d), an information terminal existing within a predetermined range from the vehicle as a target information terminal to which abnormality of the vehicle is to be notified; the selection means is configured to select the target information terminal based on the pieces of position information acquired by the acquisition means; generation means for generating first abnormality notification information for notifying the abnormality of the vehicle to the selected target information terminal; andtransmission means for transmitting the first abnormality notification information generated by the generation means to the selected target information terminal; characterized in that the generation means is configured to generate, in a case where time when the reception means has received the abnormality detection information from the vehicle is outside working time of the vehicle, second abnormality notification information for making a notification of theft occurrence, and the transmission means is configured to transmit the generated second abnormality notification information to an information terminal of a manager instead of the target information terminal.
A computer-implemented method for transmitting map images to a navigation device in a limited bandwidth environment in which the navigation device is at least temporarily unable to receive or transmit data at a rate of at least 200 kilobits/sec, the method comprising: determining or predicting a traffic condition for a location based on an analysis of real-time, historical or predictive traffic data; developing a map image depicting the traffic condition; breaking up the map image into a plurality of image segments, wherein a map image for a location with a higher traffic density is broken up into more image segments than a map image for a location with a lower traffic density; encoding the plurality of image segments of the map image into a plurality of payloads, each payload including an image segment of the plurality of image segments; and transmitting the plurality of payloads over-the-air to the navigation device, wherein each transmission of a payload is below a threshold size for processing in the limited bandwidth environment and wherein the plurality of payloads are transmitted with a defined order such that the plurality of image segments can be decoded and reassembled by the navigation device for display as a single map image. determining or predicting a traffic condition for a location based on an analysis of real-time, historical or predictive traffic data; developing a map image depicting the traffic condition; breaking up the map image into a plurality of image segments, wherein a map image for a location with a higher traffic density is broken up into more image segments than a map image for a location with a lower traffic density; encoding the plurality of image segments of the map image into a plurality of payloads, each payload including an image segment of the plurality of image segments; and transmitting the plurality of payloads over-the-air to the navigation device, wherein each transmission of a payload is below a threshold size for processing in the limited bandwidth environment and wherein the plurality of payloads are transmitted with a defined order such that the plurality of image segments can be decoded and reassembled by the navigation device for display as a single map image.
A nucleic acid molecule comprising a nucleic acid sequence encoding a modified viral RNA replicon derived from a Venezuelan equine encephalitis virus (VEEV), wherein the nucleic acid molecule comprises the nucleotide sequence of SEQ ID NO: 19.
A computer implemented method comprising: receiving, by a host processor via a platform layer API (application program interface) during runtime of an application program on the host processor, a request from the application program for one or more processing devices to be used to execute one or more threads of the application program, the request having arguments containing data representing a processing capability requirement of the application program for the one or more processing devices; generating, by the host processor in response to the request, one or more compute identifiers that identify the processing devices having device capabilities matching the processing capability requirement, at least one of the one or more compute identifiers specifying one or more physical compute devices from a plurality of physical compute devices, the plurality of physical computer devices including at least one central processing unit and at least one graphics processing unit physically coupled to the host processor; and returning, by the host processor via the platform layer API, the one or more compute identifiers to the application program, wherein the application program subsequently selects at least one of the one or more compute identifiers to cause either a CPU or a GPU to execute the one or more threads of the application program instead of the host processor. receiving, by a host processor via a platform layer API (application program interface) during runtime of an application program on the host processor, a request from the application program for one or more processing devices to be used to execute one or more threads of the application program, the request having arguments containing data representing a processing capability requirement of the application program for the one or more processing devices; generating, by the host processor in response to the request, one or more compute identifiers that identify the processing devices having device capabilities matching the processing capability requirement, at least one of the one or more compute identifiers specifying one or more physical compute devices from a plurality of physical compute devices, the plurality of physical computer devices including at least one central processing unit and at least one graphics processing unit physically coupled to the host processor; and returning, by the host processor via the platform layer API, the one or more compute identifiers to the application program, wherein the application program subsequently selects at least one of the one or more compute identifiers to cause either a CPU or a GPU to execute the one or more threads of the application program instead of the host processor.
An insect cell comprising a first nucleotide sequence coding for a first amino acid sequence and a second nucleotide sequence coding for a second amino acid sequence, wherein: (a) the first and second nucleotide sequence are each operably linked to expression control sequences for expression in an insect cell; (b) the first and second amino acid sequences comprise a common amino acid sequence of which at least 100 amino acids have at least 90% amino acid identity between the first and second amino acid sequences; (c) the nucleotide sequences that encode the common amino acid sequence in the first and second amino acid sequences are less than 90% identical; (d) codon usage of the first nucleotide sequence encoding the common amino acid sequence is adapted to the codon usage of the insect host cell; (e) the first nucleotide sequence encodes the amino acid sequence of a parvoviral Rep52 or 40 protein and the second nucleotide sequence encodes the amino acid sequence of a parvoviral Rep78 or 68 protein; and (f) the common amino acid sequences comprise the amino acid sequences from the second amino acid to the most C-terminal amino acid of the parvoviral Rep52 or 40 protein. (a) the first and second nucleotide sequence are each operably linked to expression control sequences for expression in an insect cell; (b) the first and second amino acid sequences comprise a common amino acid sequence of which at least 100 amino acids have at least 90% amino acid identity between the first and second amino acid sequences; (c) the nucleotide sequences that encode the common amino acid sequence in the first and second amino acid sequences are less than 90% identical; (d) codon usage of the first nucleotide sequence encoding the common amino acid sequence is adapted to the codon usage of the insect host cell; (e) the first nucleotide sequence encodes the amino acid sequence of a parvoviral Rep52 or 40 protein and the second nucleotide sequence encodes the amino acid sequence of a parvoviral Rep78 or 68 protein; and (f) the common amino acid sequences comprise the amino acid sequences from the second amino acid to the most C-terminal amino acid of the parvoviral Rep52 or 40 protein.
An aerosol-generating device (1, 1', 1") for generating an aerosol by dispersing an aerosol-forming powder into an airflow, the device (1, 1', 1") comprising: a device housing comprising an airflow passage therethrough and being configured to receive a capsule containing the aerosol-forming powder to be discharged into the airflow passage, a magnetic actuator (10, 10', 10") being configured to generate a movement of the capsule when being received in the device housing for de-agglomerating the aerosol-forming powder within the capsule, wherein the magnetic actuator (10, 10', 10") comprises at least one stationary magnetic coil (20, 20', 20", 50') within the device housing for generating a magnetic field, wherein the magnetic actuator (10, 10', 10") further comprises a movable armature configured to move in response to a magnetic field of the stationary magnetic coil (20, 20', 20", 50'), the armature (40, 40', 40") being connectable to the capsule for transferring a movement of the armature onto the capsule, characterized in that the movable armature comprises or forms a holder to receive and hold the capsule within the device housing. a device housing comprising an airflow passage therethrough and being configured to receive a capsule containing the aerosol-forming powder to be discharged into the airflow passage, a magnetic actuator (10, 10', 10") being configured to generate a movement of the capsule when being received in the device housing for de-agglomerating the aerosol-forming powder within the capsule, wherein the magnetic actuator (10, 10', 10") comprises at least one stationary magnetic coil (20, 20', 20", 50') within the device housing for generating a magnetic field, wherein the magnetic actuator (10, 10', 10") further comprises a movable armature configured to move in response to a magnetic field of the stationary magnetic coil (20, 20', 20", 50'), the armature (40, 40', 40") being connectable to the capsule for transferring a movement of the armature onto the capsule, characterized in that the movable armature comprises or forms a holder to receive and hold the capsule within the device housing.