mhurhangee/patent-ind-claim-en huggingface dataset:
A power device comprising: multiple light sources arranged in a housing ; a mask arranged around each of the multiple light sources in the housing and including multiple chambers corresponding to the multiple light sources to direct light emitted from the multiple light sources to a common area on an outer surface of the housing; and multiple image sources corresponding to the multiple light sources arranged between the multiple light sources and the outer surface of the housing, light emitted from each of the multiple light sources reaching a corresponding image source before reaching the surface of the housing and projecting a corresponding image on the common area on the surface of the housing; and a controller configured to selectively emit light from one or more of the multiple light sources to selectively project different images (Icon 1, Icon 2) of the multiple image sources on the common area on the outer surface of the housing, characterized in that the controller is configured to emit light from two or more of the multiple light sources to project a blended image (Icons 1 and 2) on the common area on the outer surface of the housing. multiple light sources arranged in a housing ; a mask arranged around each of the multiple light sources in the housing and including multiple chambers corresponding to the multiple light sources to direct light emitted from the multiple light sources to a common area on an outer surface of the housing; and multiple image sources corresponding to the multiple light sources arranged between the multiple light sources and the outer surface of the housing, light emitted from each of the multiple light sources reaching a corresponding image source before reaching the surface of the housing and projecting a corresponding image on the common area on the surface of the housing; and a controller configured to selectively emit light from one or more of the multiple light sources to selectively project different images (Icon 1, Icon 2) of the multiple image sources on the common area on the outer surface of the housing, characterized in that the controller is configured to emit light from two or more of the multiple light sources to project a blended image (Icons 1 and 2) on the common area on the outer surface of the housing.
An anti-human Epidermal Growth Factor Receptor (hEGFR) antibody drug conjugate comprising the following structure: wherein Ab is an IgG1 anti-hEGFR antibody comprising a heavy chain variable region comprising a heavy chain CDR3 domain comprising the amino acid sequence set forth in SEQ ID NO: 12, a heavy chain CDR2 domain comprising the amino acid sequence set forth in SEQ ID NO: 11, and a heavy chain CDR1 domain comprising the amino acid sequence set forth in SEQ ID NO: 10; and a light chain variable region comprising a light chain CDR3 domain comprising the amino acid sequence set forth in SEQ ID NO: 8, a light chain CDR2 domain comprising the amino acid sequence set forth in SEQ ID NO: 7, and a light chain CDR1 domain comprising the amino acid sequence set forth in SEQ ID NO: 6; and wherein m is 2. a heavy chain variable region comprising a heavy chain CDR3 domain comprising the amino acid sequence set forth in SEQ ID NO: 12, a heavy chain CDR2 domain comprising the amino acid sequence set forth in SEQ ID NO: 11, and a heavy chain CDR1 domain comprising the amino acid sequence set forth in SEQ ID NO: 10; and a light chain variable region comprising a light chain CDR3 domain comprising the amino acid sequence set forth in SEQ ID NO: 8, a light chain CDR2 domain comprising the amino acid sequence set forth in SEQ ID NO: 7, and a light chain CDR1 domain comprising the amino acid sequence set forth in SEQ ID NO: 6; and wherein m is 2.
A method of additive manufacturing comprising, (i) providing a material comprised of a prepolymer and a filler, the filler having a product of the iodine number in mg/g multiplied by the oil absorption number in ccs/100 grams of at least 6,000, (ii) dispensing said material through a nozzle to form an extrudate deposited on a base , (iii) moving the base, nozzle or combination thereof while dispensing the material so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the material on the base, and (iv) repeating steps (ii) and (iii) to form a successive layer of the material adhered on the initial layer to form an additive manufactured part; wherein the oil absorption number is determined using ASTM D-2414-09 and the iodine number is determined using ASTM D1510-11. (i) providing a material comprised of a prepolymer and a filler, the filler having a product of the iodine number in mg/g multiplied by the oil absorption number in ccs/100 grams of at least 6,000, (ii) dispensing said material through a nozzle to form an extrudate deposited on a base , (iii) moving the base, nozzle or combination thereof while dispensing the material so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the material on the base, and (iv) repeating steps (ii) and (iii) to form a successive layer of the material adhered on the initial layer to form an additive manufactured part; wherein the oil absorption number is determined using ASTM D-2414-09 and the iodine number is determined using ASTM D1510-11.
A system comprising: a hand-held controller configured to generate first input data and send the first input data via a network to a cloud server , wherein the first input data is sent directly from the hand-held controller to the network; and a head-mounted display configured to be worn on a head of a user , wherein the head-mounted display is configured to receive a stream of compressed interactive media generated at least partially based on the first input data, wherein the stream is received from the cloud server via the network without using a game console between the head-mounted display and the network, wherein the head-mounted display is configured to decode the compressed interactive media to output decoded media, wherein the head-mounted display includes a display screen configured to display images based on the decoded media. a hand-held controller configured to generate first input data and send the first input data via a network to a cloud server , wherein the first input data is sent directly from the hand-held controller to the network; and a head-mounted display configured to be worn on a head of a user , wherein the head-mounted display is configured to receive a stream of compressed interactive media generated at least partially based on the first input data, wherein the stream is received from the cloud server via the network without using a game console between the head-mounted display and the network, wherein the head-mounted display is configured to decode the compressed interactive media to output decoded media, wherein the head-mounted display includes a display screen configured to display images based on the decoded media.
A computer-implemented method, comprising: obtaining , by one or more computing devices , a request for navigational directions to a target destination; determining , by the one or more computing devices , an outbound journey route from an initial location to the target destination, wherein the outbound journey route includes an estimated outbound journey time determined at least in part from one or more of current traffic conditions or historical traffic conditions; determining , by the one or more computing devices , a return journey route from the target destination to a return destination, wherein the return journey route includes an estimated return journey time determined at least in part from one or more of current traffic conditions or historical traffic conditions; comparing , by the one or more computing devices , the estimated outbound journey time to the estimated return journey time; and generating , by the one or more computing devices , a notification regarding the return journey route when comparing the estimated outbound journey time to the estimated return journey time results in a determination that the estimated return journey time is greater than the estimated outbound journey time. obtaining , by one or more computing devices , a request for navigational directions to a target destination; determining , by the one or more computing devices , an outbound journey route from an initial location to the target destination, wherein the outbound journey route includes an estimated outbound journey time determined at least in part from one or more of current traffic conditions or historical traffic conditions; determining , by the one or more computing devices , a return journey route from the target destination to a return destination, wherein the return journey route includes an estimated return journey time determined at least in part from one or more of current traffic conditions or historical traffic conditions; comparing , by the one or more computing devices , the estimated outbound journey time to the estimated return journey time; and generating , by the one or more computing devices , a notification regarding the return journey route when comparing the estimated outbound journey time to the estimated return journey time results in a determination that the estimated return journey time is greater than the estimated outbound journey time.
A display apparatus comprising: a display panel comprising a plurality of pixels each comprising a plurality of sub pixels of different colors; a storage configured to store a plurality of lookup tables generated with a plurality of gamma values and including a reference gamma value; and a processor configured to determine a lookup table, from among the plurality of lookup tables, to be applied to each of the plurality of sub pixels based on a location of a sub pixel and a gray scale value to be displayed, and to control the display panel to provide an image signal to each of the plurality of sub pixels based on the determined lookup table, wherein the processor is configured to: compare a gray scale value input to a first sub pixel of a first color with gray scale values input to sub pixels of the same color adjacent to the first sub pixel, in response to a difference of the gray scale values being greater than or equal to a predetermined value, to select a lookup table based on the reference gamma value to be applied to the first sub pixel, and in response to the difference of the gray scale values being less than the predetermined value, to select a lookup table based on a gamma value different from the reference gamma to be applied to the first sub pixel. a display panel comprising a plurality of pixels each comprising a plurality of sub pixels of different colors; a storage configured to store a plurality of lookup tables generated with a plurality of gamma values and including a reference gamma value; and a processor configured to determine a lookup table, from among the plurality of lookup tables, to be applied to each of the plurality of sub pixels based on a location of a sub pixel and a gray scale value to be displayed, and to control the display panel to provide an image signal to each of the plurality of sub pixels based on the determined lookup table, wherein the processor is configured to: compare a gray scale value input to a first sub pixel of a first color with gray scale values input to sub pixels of the same color adjacent to the first sub pixel, in response to a difference of the gray scale values being greater than or equal to a predetermined value, to select a lookup table based on the reference gamma value to be applied to the first sub pixel, and in response to the difference of the gray scale values being less than the predetermined value, to select a lookup table based on a gamma value different from the reference gamma to be applied to the first sub pixel. compare a gray scale value input to a first sub pixel of a first color with gray scale values input to sub pixels of the same color adjacent to the first sub pixel, in response to a difference of the gray scale values being greater than or equal to a predetermined value, to select a lookup table based on the reference gamma value to be applied to the first sub pixel, and in response to the difference of the gray scale values being less than the predetermined value, to select a lookup table based on a gamma value different from the reference gamma to be applied to the first sub pixel.
Conversion system of the movements related to sign languages of one hand or both, as well as their respective forearms, into voice and / or written text comprising : - a set of open rings to be worn and placed on fingers joints of one hand or both with coupling forms such that they leave the tactile parts of the hands free and used for housing flex sensors ; - a part to be placed on the back of the hand and anchored to the same through a C-shape form placed in an area covering the palm of the hand in a terminal zone comprised between thumb and forefinger. - a space which is located in the area between thumb and forefinger and which is suitable for housing a multifunction button; - a housing area created in the part , suitable for anchoring and protecting a IMU , wherein IMU means Inertial Measurement Unit ; - shaped fairlead elements that are insertable by sliding in coupling elements placed on the part ; - a part to be worn through an open bracelet on one forearm or both, in which a further IMU, a microcontroller in connection with all sensors and a Bluetooth module are housed; - links between the parts . - a set of open rings to be worn and placed on fingers joints of one hand or both with coupling forms such that they leave the tactile parts of the hands free and used for housing flex sensors ; - a part to be placed on the back of the hand and anchored to the same through a C-shape form placed in an area covering the palm of the hand in a terminal zone comprised between thumb and forefinger. - a space which is located in the area between thumb and forefinger and which is suitable for housing a multifunction button; - a housing area created in the part , suitable for anchoring and protecting a IMU , wherein IMU means Inertial Measurement Unit ; - shaped fairlead elements that are insertable by sliding in coupling elements placed on the part ; - a part to be worn through an open bracelet on one forearm or both, in which a further IMU, a microcontroller in connection with all sensors and a Bluetooth module are housed; - links between the parts .
A stabilizer manufacturing apparatus (S) for manufacturing a stabilizer to which rubber bushes are heat-bonded, comprising: a conveyor (C) for conveying the stabilizer on a clamp jig in a conveying direction, the rubber bushes being pressure-bonded to bonding locations on the stabilizer on which an adhesive layer is formed; power supply devices for respectively supplying power to coils used in high-frequency induction heating; and the coils for respectively heating portions to be heated by generating a magnetic field in the portions to be heated near the bonding locations on the stabilizer, wherein the coils are respectively separated by a predetermined distance from the corresponding portions to be heated of a predetermined number of stabilizers conveyed in the conveying direction, wherein the coils comprise an upper and lower pair of coils having four portions arranged at four positions on the left and right sides of the rubber bush and on upper and lower sides of the stabilizer, in the conveying direction, the coils extend in the conveying direction and across the stabilizer and each have a front portion and a rear portion aligned with a rubber bush being conveyed, and wherein the front portion and the rear portion each have such a bent shape such that the rubber bush and clamp jig are spaced apart from the front portion and rear portion while being conveyed by the conveyor (C) in the conveying direction. a conveyor (C) for conveying the stabilizer on a clamp jig in a conveying direction, the rubber bushes being pressure-bonded to bonding locations on the stabilizer on which an adhesive layer is formed; power supply devices for respectively supplying power to coils used in high-frequency induction heating; and the coils for respectively heating portions to be heated by generating a magnetic field in the portions to be heated near the bonding locations on the stabilizer, wherein the coils are respectively separated by a predetermined distance from the corresponding portions to be heated of a predetermined number of stabilizers conveyed in the conveying direction, wherein the coils comprise an upper and lower pair of coils having four portions arranged at four positions on the left and right sides of the rubber bush and on upper and lower sides of the stabilizer, in the conveying direction, the coils extend in the conveying direction and across the stabilizer and each have a front portion and a rear portion aligned with a rubber bush being conveyed, and wherein the front portion and the rear portion each have such a bent shape such that the rubber bush and clamp jig are spaced apart from the front portion and rear portion while being conveyed by the conveyor (C) in the conveying direction.
A method for performing uplink orthogonal frequency division multiple access, UL OFDMA, based random access to an access point, AP, by a station, STA, in a wireless local area network, WLAN, system, the method comprising: setting a random value within an OFDMA contention window, OCW, as an OFDMA back-off, OBO, value; receiving a beacon frame from the AP, wherein the beacon frame comprises transmission start time information of at least one first trigger frame for random access, TF-R; receiving the at least one first TF-R allocating at least one first slot for random access; decrementing the OBO value based on the number of first slots allocated by the at least one first TF-R; and based on that the OBO value decrements to 0 according to decrementing the OBO value based on the number of first slots: randomly selecting a slot from the at least one first slot; and transmitting a frame in the slot. setting a random value within an OFDMA contention window, OCW, as an OFDMA back-off, OBO, value; receiving a beacon frame from the AP, wherein the beacon frame comprises transmission start time information of at least one first trigger frame for random access, TF-R; receiving the at least one first TF-R allocating at least one first slot for random access; decrementing the OBO value based on the number of first slots allocated by the at least one first TF-R; and based on that the OBO value decrements to 0 according to decrementing the OBO value based on the number of first slots: randomly selecting a slot from the at least one first slot; and transmitting a frame in the slot. randomly selecting a slot from the at least one first slot; and transmitting a frame in the slot.
A composition comprising at least two seasonal H3 influenza A-specific amplification primers, wherein the primers comprise nucleic acid oligonucleotide primers having the sequence set forth in SEQ ID NO:99 and SEQ ID. NO. 100 and further comprising a seasonal H3 seasonal influenza A-specific oligonucleotide detection probe having the sequence set forth in SEQ ID NO: 102.
A lifting device for a vessel or vehicle , the device comprising: - a lifting element tiltable around a predetermined first axis , - a drive arrangement for tilting the lifting element, the drive arrangement comprising: - a drive rod connected rotatably, around a fourth axis , to the lifting element, wherein the fourth axis is not identical to any of the other axes - a rotatable element rotated by one or more motors around a second axis , the drive rod being connected to the rotatable element so as to rotate around a third axis not identical to the second axis, characterized in that the rotatable element is rotated by one or more electrical motors and that the rotatable element is rotatable around the second axis between a first position where the distance between the second axis and the fourth axis is a minimum distance and a second position where the distance between the second axis and the fourth axis is a maximum distance, the motor(s) being configured to rotate more than 360° to bring the rotatable element from the first position to the second position. - a lifting element tiltable around a predetermined first axis , - a drive arrangement for tilting the lifting element, the drive arrangement comprising: - a drive rod connected rotatably, around a fourth axis , to the lifting element, wherein the fourth axis is not identical to any of the other axes - a rotatable element rotated by one or more motors around a second axis , the drive rod being connected to the rotatable element so as to rotate around a third axis not identical to the second axis, - a drive rod connected rotatably, around a fourth axis , to the lifting element, wherein the fourth axis is not identical to any of the other axes - a rotatable element rotated by one or more motors around a second axis , the drive rod being connected to the rotatable element so as to rotate around a third axis not identical to the second axis,
A graft interstock between two different-family plants, the graft interstock comprising a plant tissue of a plant belonging to the family Solanaceae, Brassicaceae, Lamiaceae, or Orobanchaceae.
An application instance address translation method, wherein the method comprises: sending , by a control plane device, a collaboration request to a mobile edge cloud, MEC, control device, wherein the collaboration request comprises location information of a terminal and information about an application service, and the application service is an application service accessed by the terminal, wherein the control plane device is a core network element configured to formulate a packet forwarding policy, and control a user plane to forward a packet according to the packet forwarding policy; receiving , by the control plane device, response information from the MEC control device, wherein the response information comprises an address of a target instance, wherein the target instance is an application instance that provides the application service and whose service location range comprises a location of the terminal, and the address of the target instance is associated with the location information of the terminal and the information about the application service; and sending , by the control plane device based on the address of the target instance, the address of the target instance to a first user plane device corresponding to the target instance, and instructing the first user plane device to set, as the address of the target instance, a forwarding address of an uplink packet that is sent by the terminal to obtain the application service. sending , by a control plane device, a collaboration request to a mobile edge cloud, MEC, control device, wherein the collaboration request comprises location information of a terminal and information about an application service, and the application service is an application service accessed by the terminal, wherein the control plane device is a core network element configured to formulate a packet forwarding policy, and control a user plane to forward a packet according to the packet forwarding policy; receiving , by the control plane device, response information from the MEC control device, wherein the response information comprises an address of a target instance, wherein the target instance is an application instance that provides the application service and whose service location range comprises a location of the terminal, and the address of the target instance is associated with the location information of the terminal and the information about the application service; and sending , by the control plane device based on the address of the target instance, the address of the target instance to a first user plane device corresponding to the target instance, and instructing the first user plane device to set, as the address of the target instance, a forwarding address of an uplink packet that is sent by the terminal to obtain the application service.