mhurhangee/ep-ind-claims huggingface dataset:
A system for measuring rotor deflection of a rotor shaft including: a first probe sensor configured to measure rotor deflection of said rotor shaft and a data manager, said first probe sensor having an ultrasonic speaker positioned in a first opening for providing an incident sound wave having a pulse width, and an ultrasonic microphone positioned in a second opening for receiving a reflected sound wave having a pulse width; a first digital circuit configured to measure rotor deflection data; wherein: (i) said first probe sensor is in communication with said first digital circuit; (ii) said first digital circuit comprises a speaker pulse shaper and a microcomputer; and (iii) said first digital circuit is in communication with said data manager, characterized in that said first digital circuit (20 further comprises a microphone pulse shaper, an XOR gate, a second grouping of digital gates, a clock generator, a counter, wherein said first digital circuit is configured to produce a sequence of immediate differential pulse width measurement counts which are proportional to the instantaneous distance to the rotor shaft which the microcomputer uses to perform a deflection analysis and determine rotor deflection of said rotor shaft, and wherein said first digital circuit is configured to communicate said deflection analysis to said data manager. a first probe sensor configured to measure rotor deflection of said rotor shaft and a data manager, said first probe sensor having an ultrasonic speaker positioned in a first opening for providing an incident sound wave having a pulse width, and an ultrasonic microphone positioned in a second opening for receiving a reflected sound wave having a pulse width; a first digital circuit configured to measure rotor deflection data; wherein: (i) said first probe sensor is in communication with said first digital circuit; (ii) said first digital circuit comprises a speaker pulse shaper and a microcomputer; and (iii) said first digital circuit is in communication with said data manager, (i) said first probe sensor is in communication with said first digital circuit; (ii) said first digital circuit comprises a speaker pulse shaper and a microcomputer; and (iii) said first digital circuit is in communication with said data manager, characterized in that said first digital circuit (20 further comprises a microphone pulse shaper, an XOR gate, a second grouping of digital gates, a clock generator, a counter, wherein said first digital circuit is configured to produce a sequence of immediate differential pulse width measurement counts which are proportional to the instantaneous distance to the rotor shaft which the microcomputer uses to perform a deflection analysis and determine rotor deflection of said rotor shaft, and wherein said first digital circuit is configured to communicate said deflection analysis to said data manager.
A driver state monitoring, DSM, system comprising: an image obtainment apparatus configured to obtain image information of a user driving a vehicle; a biological information obtainment unit configured to be worn on a specific portion of the user's body and to obtain biological information from the specific portion of the user's body; and a controller configured to detect a dangerous driving-state in which the user drives the vehicle, based on the image information and the biological information of the user, wherein, based on the image information and the biological information, the controller is configured to: determine whether the dangerous driving-state corresponds to one or more of a drowsy driving state, a distracted driving-state, or a stressful driving-state; and generate information on a danger level indicating an extent of danger corresponding to the determined dangerous driving-state by applying a weighting factor to at least one of the image information or the biological information, characterized in that the applied weighting factor differs depending on whether the dangerous driving-state corresponds to the drowsy driving state, the distracted driving-state, or the stressful driving-state. an image obtainment apparatus configured to obtain image information of a user driving a vehicle; a biological information obtainment unit configured to be worn on a specific portion of the user's body and to obtain biological information from the specific portion of the user's body; and a controller configured to detect a dangerous driving-state in which the user drives the vehicle, based on the image information and the biological information of the user, wherein, based on the image information and the biological information, the controller is configured to: determine whether the dangerous driving-state corresponds to one or more of a drowsy driving state, a distracted driving-state, or a stressful driving-state; and generate information on a danger level indicating an extent of danger corresponding to the determined dangerous driving-state by applying a weighting factor to at least one of the image information or the biological information, characterized in that the applied weighting factor differs depending on whether the dangerous driving-state corresponds to the drowsy driving state, the distracted driving-state, or the stressful driving-state. determine whether the dangerous driving-state corresponds to one or more of a drowsy driving state, a distracted driving-state, or a stressful driving-state; and generate information on a danger level indicating an extent of danger corresponding to the determined dangerous driving-state by applying a weighting factor to at least one of the image information or the biological information, characterized in that the applied weighting factor differs depending on whether the dangerous driving-state corresponds to the drowsy driving state, the distracted driving-state, or the stressful driving-state.
A wiring substrate (1a, 1b, 1c, 1d) comprising: a substrate main body (2, 2a) which is formed of a ceramic material and has a rectangular shape in plan view, and which has a front surface and a back surface and has four side surfaces forming the periphery of the substrate main body (2, 2a), each side surface being located between the front surface and the back surface and having an inclined groove surface portion extending from the front surface to a common edge with a fracture surface portion, the fracture surface portion extending perpendicular to the front and back surfaces (3, 4) from the common edge with the fracture surface portion to the back surface; a metalized layer (11, 11a) which is formed on the front surface of the substrate main body (2, 2a) so as to extend along the four side surfaces, and which has a rectangular frame shape in plan view; wherein a portion of the front surface of the ceramic substrate main body (2, 2a) is exposed between the peripherally-outer edge of the metalized layer (11, 11a) and a common edge between the front surface and the inclined groove surface portion of each side surface of the substrate main body (2, 2a); characterized in that: the metalized layer (11, 11a) has an inclined side surface on its peripherally outer side, and a plating film (m1, m2) is formed on the front surface of the metalized layer (11, 11a). a substrate main body (2, 2a) which is formed of a ceramic material and has a rectangular shape in plan view, and which has a front surface and a back surface and has four side surfaces forming the periphery of the substrate main body (2, 2a), each side surface being located between the front surface and the back surface and having an inclined groove surface portion extending from the front surface to a common edge with a fracture surface portion, the fracture surface portion extending perpendicular to the front and back surfaces (3, 4) from the common edge with the fracture surface portion to the back surface; a metalized layer (11, 11a) which is formed on the front surface of the substrate main body (2, 2a) so as to extend along the four side surfaces, and which has a rectangular frame shape in plan view; wherein a portion of the front surface of the ceramic substrate main body (2, 2a) is exposed between the peripherally-outer edge of the metalized layer (11, 11a) and a common edge between the front surface and the inclined groove surface portion of each side surface of the substrate main body (2, 2a); characterized in that: the metalized layer (11, 11a) has an inclined side surface on its peripherally outer side, and a plating film (m1, m2) is formed on the front surface of the metalized layer (11, 11a).
An apparatus for providing a reference indication to a patient tissue, the apparatus comprising: a primary locating block including a patient-specific primary mating surface contoured for mating contact with a first portion of the patient tissue, the primary mating surface being custom-configured to mate with the patient tissue in a predetermined primary mating orientation responsive to preoperative imaging of the patient tissue, and at least one mounting feature; and at least one secondary item configured for selective engagement with the primary locating block and including a patient-specific secondary mating surface, the secondary mating surface being custom-configured to mate with the patient tissue in a predetermined secondary mating orientation responsive to preoperative imaging of the patient tissue, the secondary mating orientation being non-coincident with the primary mating orientation, and the secondary item providing a reference indication to at least a portion of the patient tissue; characterised in that the mounting feature of the primary locating block is configured for engagement with the at least one secondary item in only one predetermined secondary mounting relationship, the secondary mounting relationship being custom-configured for the patient tissue responsive to preoperative imaging of the patient tissue such that the primary locating block and the at least one secondary item are in the predetermined secondary mounting relationship when respectively and concurrently in said mating contact with the first portion and second portion of patient tissue. a primary locating block including a patient-specific primary mating surface contoured for mating contact with a first portion of the patient tissue, the primary mating surface being custom-configured to mate with the patient tissue in a predetermined primary mating orientation responsive to preoperative imaging of the patient tissue, and at least one mounting feature; and at least one secondary item configured for selective engagement with the primary locating block and including a patient-specific secondary mating surface, the secondary mating surface being custom-configured to mate with the patient tissue in a predetermined secondary mating orientation responsive to preoperative imaging of the patient tissue, the secondary mating orientation being non-coincident with the primary mating orientation, and the secondary item providing a reference indication to at least a portion of the patient tissue;
A method comprising: acquiring a three-dimensional surface representation of an anatomic structure from a scanner as a plurality of fitted three-dimensional surface scans; and superimposing the three-dimensional surface representation and a two-dimensional video image of the anatomic structure in a display in real time while acquiring the three-dimensional surface representation, wherein the three-dimensional surface representation and the two-dimensional video image are each displayed from a current point of view of the scanner. acquiring a three-dimensional surface representation of an anatomic structure from a scanner as a plurality of fitted three-dimensional surface scans; and superimposing the three-dimensional surface representation and a two-dimensional video image of the anatomic structure in a display in real time while acquiring the three-dimensional surface representation, wherein the three-dimensional surface representation and the two-dimensional video image are each displayed from a current point of view of the scanner.
An information processing device comprising: a communication unit configured to perform wireless communication according to an IEEE 802.11 standard, and a control unit configured to receive an aggregated MAC protocol data unit, A-MPDU, subframe from another information processing device, the A-MPDU subframe having backward compatibility and including a media access control, MAC, header having an address of a transmission source, TA, and at least one of an address of a transmission destination, RA, or an identifier of a group, upon detecting a frame check sequence, FCS, up to the media access control, MAC, header of the A-MPDU subframe, in case where there is no error in data of the MAC header of the A-MPDU subframe, start a process of stopping reception of an A-MPDU including the A-MPDU subframe based on at least one of the TA, the RA, or the identifier of the group included in the MAC header of the A-MPDU subframe, in response to starting the process of stopping the reception of the A-MPDU, determine whether the transmission destination or the transmission source of the A-MPDU of which the reception is stopped is not an information processing apparatus to which the information processing device is connected, and set a value for a clear channel assessment threshold for a transmission from a default value to an increased value in response to determining that the transmission destination TA or the transmission source RA of the A-MPDU of which the reception is stopped is not the information processing apparatus to which the information processing device is connected. a communication unit configured to perform wireless communication according to an IEEE 802.11 standard, and a control unit configured to receive an aggregated MAC protocol data unit, A-MPDU, subframe from another information processing device, the A-MPDU subframe having backward compatibility and including a media access control, MAC, header having an address of a transmission source, TA, and at least one of an address of a transmission destination, RA, or an identifier of a group, upon detecting a frame check sequence, FCS, up to the media access control, MAC, header of the A-MPDU subframe, in case where there is no error in data of the MAC header of the A-MPDU subframe, start a process of stopping reception of an A-MPDU including the A-MPDU subframe based on at least one of the TA, the RA, or the identifier of the group included in the MAC header of the A-MPDU subframe, in response to starting the process of stopping the reception of the A-MPDU, determine whether the transmission destination or the transmission source of the A-MPDU of which the reception is stopped is not an information processing apparatus to which the information processing device is connected, and set a value for a clear channel assessment threshold for a transmission from a default value to an increased value in response to determining that the transmission destination TA or the transmission source RA of the A-MPDU of which the reception is stopped is not the information processing apparatus to which the information processing device is connected.
A bioerodible implant for use in a method for treating diabetic macular edema, the method comprising injecting said bioerodible implant into the vitreous of a human at a frequency of once every about six months to once every about nine months, the bioerodible implant comprising a continuous, double extruded rod comprising dexamethasone homogeneously dispersed within a biodegradable polymer matrix; wherein the biodegradable polymer matrix comprises a mixture of poly(D,L-lactide-co-glycolide) (PLGA) having hydrophilic end groups and poly(D,L-lactide-co-glycolide) (PLGA) having hydrophobic end groups; wherein the bioerodible implant is sized for implantation in the vitreous of the human; and wherein the method is therapeutically effective to treat DME; and wherein said bioerodible implant is administered for a period of time of 2 years, 3 years, 4 years, 5 years, 10 years, 15 years, or for the lifetime of said human. the biodegradable polymer matrix comprises a mixture of poly(D,L-lactide-co-glycolide) (PLGA) having hydrophilic end groups and poly(D,L-lactide-co-glycolide) (PLGA) having hydrophobic end groups; wherein the bioerodible implant is sized for implantation in the vitreous of the human; and wherein the method is therapeutically effective to treat DME; and wherein said bioerodible implant is administered for a period of time of 2 years, 3 years, 4 years, 5 years, 10 years, 15 years, or for the lifetime of said human.
Movement system for any one farming machinery, constituted by a support structure provided with a three-point attachment adapted to operatively connect, by means of a rotation group, a common farm tractor to a functional head, causing a first lateral translation movement thereof and, subsequently, a second rotation movement in clockwise or counter-clockwise sense with respect to the center of rotation; said functional head being adapted to be arranged in a first collapsed configuration, in which said functional head is situated within the overall road size determined by the tractor on which it is installed; and to assume a second translated configuration, obtained due to the movement of the functional head along the trajectory, characterized in that said functional head is situated outside the overall road form of the tractor on which it is installed; said rotation group being suitably positioned with respect to said functional head in a manner so as to reversibly translate along the trajectory parallel to the ground; said movement system comprising a rigid arm connecting said three point attachment with said rotation group, said movement system being characterized in that it is provided with: a common transmission box inserted in said rotation group which, due to the action of said rigid arm, causes said first lateral translation movement and, due to the action of said rotation group, said second rotation movement in clockwise or counter-clockwise sense of said functional head around the center of rotation; said second rotation movement allows complete rotations of 360°, both in clockwise sense and in anticlockwise sense, of said functional head, due to the coincidence of the center of rotation with the rotation axis of said transmission box inside said rotation group. a common transmission box inserted in said rotation group which, due to the action of said rigid arm, causes said first lateral translation movement and, due to the action of said rotation group, said second rotation movement in clockwise or counter-clockwise sense of said functional head around the center of rotation; said second rotation movement allows complete rotations of 360°, both in clockwise sense and in anticlockwise sense, of said functional head, due to the coincidence of the center of rotation with the rotation axis of said transmission box inside said rotation group.
A telecommunications system comprising a User Equipment, UE; one or more Access Networks, AN; a Core Network, CN; and one or more Data Networks (40-1, 40-2, 40-3), DNs, wherein: the AN or ANs is configured to provide the UE access to the CN; the CN is configured to provide connectivity to the one or more Data Networks (40-1, 40-2, 40-3), DNs; the UE is configured to access the DNs (40-1, 40-2, 40-3) by using different Protocol Data Unit, PDU, sessions, established between the UE and the CN via the AN or ANs, providing connectivity to the one or more DNs (40-1, 40-2, 40-3), each PDU session comprising a PDU session identifier; the CN is configured to signal the UE, via the AN or ANs, an established PDU session, wherein the established PDU session is identified by a PDU session identifier, ID, and at least one PDU session group ID, wherein the PDU session group identifier is the same assigned to two or more different PDU sessions belonging to a UE and transporting different data and indicates that said two or more different PDU sessions should be jointly considered for system mobility and release system procedures, and wherein the UE is configured to request a PDU session by sending a PDU session establishment request message to the CN, via the AN or ANs, the request comprising: a previously received PDU session group ID, or an indication that a new PDU session group ID should be provided by the CN; and optionally, a priority identifier within the PDU session group. the AN or ANs is configured to provide the UE access to the CN; the CN is configured to provide connectivity to the one or more Data Networks (40-1, 40-2, 40-3), DNs; the UE is configured to access the DNs (40-1, 40-2, 40-3) by using different Protocol Data Unit, PDU, sessions, established between the UE and the CN via the AN or ANs, providing connectivity to the one or more DNs (40-1, 40-2, 40-3), each PDU session comprising a PDU session identifier; the CN is configured to signal the UE, via the AN or ANs, an established PDU session, wherein the established PDU session is identified by a PDU session identifier, ID, and at least one PDU session group ID, wherein the PDU session group identifier is the same assigned to two or more different PDU sessions belonging to a UE and transporting different data and indicates that said two or more different PDU sessions should be jointly considered for system mobility and release system procedures, and wherein the UE is configured to request a PDU session by sending a PDU session establishment request message to the CN, via the AN or ANs, the request comprising: a previously received PDU session group ID, or an indication that a new PDU session group ID should be provided by the CN; a previously received PDU session group ID, or an indication that a new PDU session group ID should be provided by the CN; and optionally, a priority identifier within the PDU session group.
Packaging comprising a first sheet and a second sheet assembled together on the lateral sides (1a, 1b) and on the lower side of the packaging so as to form a pouch, at the upper part of which is a first opening, and permanent closure means configured between said sheets on the upper side so as to be positioned and to close the first opening once the pouch has been filled with a product (7a, 7b, 7c, 7d), said sheets being fixed in place with each other on said upper side during the positioning of the permanent closure means, characterised in that the permanent closure means remain permanently in place once positioned, the second sheet comprises easy opening means configured to create a second opening on said second sheet, offset below the permanent closure means such that the upper part of the packaging, formed from the upper part of the first sheet and from the upper part of the second sheet held closed with each other by the permanent closure means, constitutes a flap configured to be folded back on the outer surface of the second sheet by covering said second opening, repositionable closure means being configured on said outer surface to temporarily hold the flap in the closure position closing the second opening.
A method for generating temporally consistent superpixels for a sequence of images, the method comprising: - generating a cluster assignment for a first image of the sequence of images, the clusters representing superpixels for that image; - initializing subsequent images based on a superpixel label propagation from one image to the next image using backward optical flow; and - for subsequent images of the sequence of images, processing only pixels at a contour of a superpixel, called contour pixels, with regard to their cluster assignment. - generating a cluster assignment for a first image of the sequence of images, the clusters representing superpixels for that image; - initializing subsequent images based on a superpixel label propagation from one image to the next image using backward optical flow; and - for subsequent images of the sequence of images, processing only pixels at a contour of a superpixel, called contour pixels, with regard to their cluster assignment.