mhurhangee/patent-ind-claim-en huggingface dataset:
A frequency-modulated continuous-wave (FMCW) radar device comprising: an oscillator configured to oscillate a local signal; a transmitting antenna configured to emit a transmission signal based on the local signal; a receiving antenna configured to receive a reflected wave in which the transmission signal is reflected from a target; a mixer configured to multiply the reflected wave and the local signal by each other to produce a multiplied signal; a first shifter provided between the oscillator and the mixer and configured to shift a phase of the local signal, wherein: the first shifter sets a shift amount to a first value at first-time transmission of the transmission signal and sets the shift amount to a second value at second-time transmission of the transmission signal, and a difference between the first value and the second value is approximately 180 degrees; and a calculation unit configured to perform subtraction between an output of the mixer at the first-time transmission of the transmission signal and an output of the mixer at the second-time transmission of the transmission signal, characterized by further comprising: a second shifter configured to shift a phase of a signal output by the first shifter between the first shifter and the transmitting antenna . an oscillator configured to oscillate a local signal; a transmitting antenna configured to emit a transmission signal based on the local signal; a receiving antenna configured to receive a reflected wave in which the transmission signal is reflected from a target; a mixer configured to multiply the reflected wave and the local signal by each other to produce a multiplied signal; a first shifter provided between the oscillator and the mixer and configured to shift a phase of the local signal, wherein: the first shifter sets a shift amount to a first value at first-time transmission of the transmission signal and sets the shift amount to a second value at second-time transmission of the transmission signal, and a difference between the first value and the second value is approximately 180 degrees; and the first shifter sets a shift amount to a first value at first-time transmission of the transmission signal and sets the shift amount to a second value at second-time transmission of the transmission signal, and a difference between the first value and the second value is approximately 180 degrees; and a calculation unit configured to perform subtraction between an output of the mixer at the first-time transmission of the transmission signal and an output of the mixer at the second-time transmission of the transmission signal, characterized by further comprising: a second shifter configured to shift a phase of a signal output by the first shifter between the first shifter and the transmitting antenna .
A method for diagnosing membranous nephropathy (MN) in a subject comprising: incubating a sample containing memory B-cells obtained from the subject with a PLA2R epitope bound to a fluorophore; and detecting a binding of the PLA2R epitope to the cells in the sample; thereby diagnosing MN in the subject, wherein the PLA2R epitope comprises SEQ ID NO: 13. incubating a sample containing memory B-cells obtained from the subject with a PLA2R epitope bound to a fluorophore; and detecting a binding of the PLA2R epitope to the cells in the sample; thereby diagnosing MN in the subject, wherein the PLA2R epitope comprises SEQ ID NO: 13.
Case for packaging and monitoring biological samples comprising: a body with internal space for storing the samples and an upper lid for closing the body; spaces suitable for receiving a plurality of bases with identified biological samples; at least one temperature sensor suitable for sensing the transport temperature profile; at least one accelerometer suitable for sensing the sample transport vibrations; a data processor programmed for sending within a predefined time interval the temperature and vibration information gathered by the sensor and the accelerometer, respectively; at least one radio frequency identification antenna - RFID - for communicating the information gathered to the plurality of bases, wherein each base is suitable for storing and transmitting the information sent by the antenna; wherein the case material is selected from a list comprised of: expanded polypropylene, synthetic polymer foams, or mixtures thereof; wherein the predefined time interval is regular; wherein the case comprises 2 RFID antennas. a body with internal space for storing the samples and an upper lid for closing the body; spaces suitable for receiving a plurality of bases with identified biological samples; at least one temperature sensor suitable for sensing the transport temperature profile; at least one accelerometer suitable for sensing the sample transport vibrations; a data processor programmed for sending within a predefined time interval the temperature and vibration information gathered by the sensor and the accelerometer, respectively; at least one radio frequency identification antenna - RFID - for communicating the information gathered to the plurality of bases, wherein each base is suitable for storing and transmitting the information sent by the antenna; wherein the case material is selected from a list comprised of: expanded polypropylene, synthetic polymer foams, or mixtures thereof; wherein the predefined time interval is regular; wherein the case comprises 2 RFID antennas.
A method of forming a memory device, comprising: forming a first polysilicon layer using a first polysilicon deposition over and insulated from a semiconductor substrate ; forming an insulation spacer directly on the first polysilicon layer; removing some of the first polysilicon layer so as to leave a block of the first polysilicon layer under the insulation spacer, wherein the block of the first polysilicon layer has opposing first and second side surfaces defined by side surfaces of the insulation spacer; forming a source region in the substrate adjacent the second side surface ; forming a second polysilicon layer using a second polysilicon deposition, different from the first polysilicon deposition, over the substrate; removing some of the second polysilicon layer so as to leave a block of the second polysilicon layer that is over and insulated from the substrate, and adjacent to and insulated from the first side surface ; forming a third polysilicon layer using a third polysilicon deposition, different from the first and second polysilicon depositions, over the substrate; removing some of the third polysilicon layer so as to leave a block of the third polysilicon layer that is over and insulated from the source region; and forming a drain region in the substrate adjacent to the block of the second polysilicon layer. forming a first polysilicon layer using a first polysilicon deposition over and insulated from a semiconductor substrate ; forming an insulation spacer directly on the first polysilicon layer; removing some of the first polysilicon layer so as to leave a block of the first polysilicon layer under the insulation spacer, wherein the block of the first polysilicon layer has opposing first and second side surfaces defined by side surfaces of the insulation spacer; forming a source region in the substrate adjacent the second side surface ; forming a second polysilicon layer using a second polysilicon deposition, different from the first polysilicon deposition, over the substrate; removing some of the second polysilicon layer so as to leave a block of the second polysilicon layer that is over and insulated from the substrate, and adjacent to and insulated from the first side surface ; forming a third polysilicon layer using a third polysilicon deposition, different from the first and second polysilicon depositions, over the substrate; removing some of the third polysilicon layer so as to leave a block of the third polysilicon layer that is over and insulated from the source region; and forming a drain region in the substrate adjacent to the block of the second polysilicon layer.
A particulate material feeding device, comprising: a particulate material storage tank configured to store particulate materials; a delivery device configured to continuously deliver the particulate materials stored in the particulate material storage tank; a chute configured to drop and transfer the particulate materials delivered from the delivery device and drop and feed the particulate materials to a feeding position; a blocking body configured to intermittently enter a blocking position for blocking at least a part of particulate passage in a cross-sectional direction in the chute, from a non-blocking position; and a recovery path branched from the chute so as to discharge the particulate materials blocked by the blocking body to the outside of the chute; wherein the blocking body does not block the particulate passage in the middle in the cross direction (CD) in the chute and intermittently enters the blocking position for blocking the particulate passage on the both sides in the CD in the chute, and the blocking body intermittently enters the chute and the blocked particulate materials are discharged to the recovery path so that in the feeding position, the particulate materials are intermittently fed at a position corresponding in the CD to the blocking position of the blocking body, and the particulate materials are continuously fed at a position not corresponding in the CD to the blocking position of the blocking body. a particulate material storage tank configured to store particulate materials; a delivery device configured to continuously deliver the particulate materials stored in the particulate material storage tank; a chute configured to drop and transfer the particulate materials delivered from the delivery device and drop and feed the particulate materials to a feeding position; a blocking body configured to intermittently enter a blocking position for blocking at least a part of particulate passage in a cross-sectional direction in the chute, from a non-blocking position; and a recovery path branched from the chute so as to discharge the particulate materials blocked by the blocking body to the outside of the chute; wherein the blocking body does not block the particulate passage in the middle in the cross direction (CD) in the chute and intermittently enters the blocking position for blocking the particulate passage on the both sides in the CD in the chute, and the blocking body intermittently enters the chute and the blocked particulate materials are discharged to the recovery path so that in the feeding position, the particulate materials are intermittently fed at a position corresponding in the CD to the blocking position of the blocking body, and the particulate materials are continuously fed at a position not corresponding in the CD to the blocking position of the blocking body.
An electrochemical device, comprising: a separator, comprising a first porous layer and a second porous layer; and an electrolyte, comprising at least one compound containing 2 to 3 cyano groups, characterized in that the separator further comprises a coating disposed on the first porous layer, and the coating comprises an inorganic particle and a polymer, wherein the thickness of the first porous layer is 0.05 μm to 10 μm, and the thickness of the coating is 0.06 μm to 4 μm. a separator, comprising a first porous layer and a second porous layer; and an electrolyte, comprising at least one compound containing 2 to 3 cyano groups, characterized in that the separator further comprises a coating disposed on the first porous layer, and the coating comprises an inorganic particle and a polymer, wherein the thickness of the first porous layer is 0.05 μm to 10 μm, and the thickness of the coating is 0.06 μm to 4 μm.
A method for signalling, to a terminal , the substitution of content broadcast via a broadcast network to which said terminal is connected by substitution content targeted at least for said terminal, characterised in that it comprises, implemented in a broadcast system: - obtaining (E300) at least one packet of substitution information in SCTE 35 format comprising one piece of PTS, for "Presentation TimeStamp", temporal information indicative of an instant of execution by said terminal of at least one action for the substitution of the broadcast content by the substitution content, said one piece of temporal information corresponding to a date of restitution of an image of said broadcast content with reference to a reference clock embedded in said broadcast content; - generating (E320) at least one event notification message "StreamEvent" in DSM-CC format comprising at least one piece of temporal information among the temporal information received via said at least one packet of substitution information; and - inserting (E330), into a data stream conveying said content broadcast within said broadcast network, said at least one event notification message at a temporal location prior to said at least one piece of temporal information in a chronological order of restitution of the images of said broadcast content. - obtaining (E300) at least one packet of substitution information in SCTE 35 format comprising one piece of PTS, for "Presentation TimeStamp", temporal information indicative of an instant of execution by said terminal of at least one action for the substitution of the broadcast content by the substitution content, said one piece of temporal information corresponding to a date of restitution of an image of said broadcast content with reference to a reference clock embedded in said broadcast content; - generating (E320) at least one event notification message "StreamEvent" in DSM-CC format comprising at least one piece of temporal information among the temporal information received via said at least one packet of substitution information; and - inserting (E330), into a data stream conveying said content broadcast within said broadcast network, said at least one event notification message at a temporal location prior to said at least one piece of temporal information in a chronological order of restitution of the images of said broadcast content.
A method for processing eye potential, comprising: receiving an eye potential of a first electrode and a second electrode respectively provided on a surface of a pair of nose pads of an eyewear relative to a third electrode provided on the eyewear if an operation mode in which a visual line detection process is executed has been set; characterized by determining whether there is an abnormality in the received eye potential; and when there is no abnormality, determining a visual line of a human wearing the eyewear on the basis of the eye potential if the operation mode has been set, and repeating the receiving the eye potential, the determining whether there is an abnormality in the received eye potential and the determining the visual line; and when there is an abnormality, determining whether each of the first electrode , the second electrode and the third electrode is distanced from the human on the basis of the eye potential if the operation mode has been set, transitioning from the operation mode to a wait mode in which the visual line detection processing is not executed if it is determined that all of the first electrode , the second electrode and the third electrode are distanced from the human, and issuing a warning if it is determined that any one of the first electrode and the second electrode and the third electrode is distanced from the human. characterized by determining whether there is an abnormality in the received eye potential; and when there is no abnormality, determining a visual line of a human wearing the eyewear on the basis of the eye potential if the operation mode has been set, and repeating the receiving the eye potential, the determining whether there is an abnormality in the received eye potential and the determining the visual line; and when there is an abnormality, determining whether each of the first electrode , the second electrode and the third electrode is distanced from the human on the basis of the eye potential if the operation mode has been set, transitioning from the operation mode to a wait mode in which the visual line detection processing is not executed if it is determined that all of the first electrode , the second electrode and the third electrode are distanced from the human, and issuing a warning if it is determined that any one of the first electrode and the second electrode and the third electrode is distanced from the human.
A process for producing a plastic luggage shell, said luggage shell comprising areas of high degree of form change, such as integrally formed corner regions, curves or bends at an intersection between main surfaces of the luggage shell, said process comprising: - providing a lamina of self-reinforced thermoplastic material, the lamina having edges and a field portion between the edges ; - tensioning the lamina or areas thereof by controlling gripping means which grip edges of the lamina to pull and move the gripped edges , and - press-forming the lamina to form the luggage shell; wherein said gripping means comprise pairs of gripping bars elongated along, and for gripping, the edges of the lamina, the pairs of gripping bars each comprising a lower gripping bar and an upper gripping bar ; and wherein said gripping bars are arranged to stretch said lamina after warming by pulling on the edges of said lamina. - providing a lamina of self-reinforced thermoplastic material, the lamina having edges and a field portion between the edges ; - tensioning the lamina or areas thereof by controlling gripping means which grip edges of the lamina to pull and move the gripped edges , and - press-forming the lamina to form the luggage shell; wherein said gripping means comprise pairs of gripping bars elongated along, and for gripping, the edges of the lamina, the pairs of gripping bars each comprising a lower gripping bar and an upper gripping bar ; and wherein said gripping bars are arranged to stretch said lamina after warming by pulling on the edges of said lamina.
Device , in particular a Micro-Electro-Mechanical-System, MEMS, mirror, comprising: a movable structure configured to rotate around at least one axis of rotation ; one micro-magnet connected to the moveable structure , wherein the micro-magnet is cylindrical and has an aspect ratio larger than 1:1; wherein a rotation of the moveable structure around the at least one axis of rotation rotates the micro-magnet around the same axis of rotation ; and a fixed structure comprising an arrangement of two or more magnetic field sensors positioned at a certain distance (h mag ) below the micro-magnet , wherein the distance (h mag ) between the fixed structure and the micro-magnet is in the range between 5 μm to 1000 μm, wherein the arrangement of the magnetic field sensors is configured to sense a change of a magnetic field distribution caused by a rotation of the micro-magnet . a movable structure configured to rotate around at least one axis of rotation ; one micro-magnet connected to the moveable structure , wherein the micro-magnet is cylindrical and has an aspect ratio larger than 1:1; wherein a rotation of the moveable structure around the at least one axis of rotation rotates the micro-magnet around the same axis of rotation ; and a fixed structure comprising an arrangement of two or more magnetic field sensors positioned at a certain distance (h mag ) below the micro-magnet , wherein the distance (h mag ) between the fixed structure and the micro-magnet is in the range between 5 μm to 1000 μm, wherein the arrangement of the magnetic field sensors is configured to sense a change of a magnetic field distribution caused by a rotation of the micro-magnet .
A process for producing a multilayer coating onto a fiber-reinforced composite material, comprising the steps of i. applying a primer compositions onto the fiber-reinforced composite material to form a primer layer and at least partially drying the primer layer, ii. applying a basecoat composition onto the primer layer to form a basecoat layer and at least partially drying the basecoat layer, iii. (a) applying a first clearcoat composition 1 onto the basecoat layer to form a first clearcoat layer 1 and curing the layers formed in steps i., ii. and the first clearcoat layer at a temperature of at least 80 °C and subsequently applying a second clearcoat composition 2 onto the thus cured layers to form a clearcoat layer 2 and curing clearcoat layer 2 at a temperature of more than 25 °C to less than 60 °C for 10 to 40 min; or (b) directly applying the clearcoat composition 2 onto the basecoat layer to form a single clearcoat layer 2 and curing the single clearcoat layer 2 at a temperature of more than 25 °C to less than 60 °C for 10 to 40 min followed by curing the primer, basecoat and clearcoat layer 2 at a temperature of at least 80 °C. i. applying a primer compositions onto the fiber-reinforced composite material to form a primer layer and at least partially drying the primer layer, ii. applying a basecoat composition onto the primer layer to form a basecoat layer and at least partially drying the basecoat layer, iii. (a) applying a first clearcoat composition 1 onto the basecoat layer to form a first clearcoat layer 1 and curing the layers formed in steps i., ii. and the first clearcoat layer at a temperature of at least 80 °C and subsequently applying a second clearcoat composition 2 onto the thus cured layers to form a clearcoat layer 2 and curing clearcoat layer 2 at a temperature of more than 25 °C to less than 60 °C for 10 to 40 min; or (b) directly applying the clearcoat composition 2 onto the basecoat layer to form a single clearcoat layer 2 and curing the single clearcoat layer 2 at a temperature of more than 25 °C to less than 60 °C for 10 to 40 min followed by curing the primer, basecoat and clearcoat layer 2 at a temperature of at least 80 °C. (a) applying a first clearcoat composition 1 onto the basecoat layer to form a first clearcoat layer 1 and curing the layers formed in steps i., ii. and the first clearcoat layer at a temperature of at least 80 °C and subsequently applying a second clearcoat composition 2 onto the thus cured layers to form a clearcoat layer 2 and curing clearcoat layer 2 at a temperature of more than 25 °C to less than 60 °C for 10 to 40 min; or (b) directly applying the clearcoat composition 2 onto the basecoat layer to form a single clearcoat layer 2 and curing the single clearcoat layer 2 at a temperature of more than 25 °C to less than 60 °C for 10 to 40 min followed by curing the primer, basecoat and clearcoat layer 2 at a temperature of at least 80 °C.