mhurhangee/ep-ind-claims huggingface dataset:
An intervertebral disc prosthesis, comprising: a first end plate comprising a first bone engagement surface securable to a first vertebral body, the first end plate further comprising a first articular surface; a second end plate comprising a second bone engagement surface securable to a second vertebral body, the second end plate further comprising a second articular surface; and a nucleus positioned between the first and second end plates, the nucleus formed separately from the first and second end plates and comprising a third articular surface; wherein the nucleus comprises a first orientation feature which cooperates with the first articular surfaces to provide a preferred orientation about a medial/lateral axis of the first end plate relative to the second end plate, wherein the nucleus further cooperates with one of the first or second articular surfaces to provide a preferred orientation about an anterior/posterior axis of the first end plate relative to the second end plate; wherein the first orientation feature is part of the third articular surface, wherein the third articular surface articulates with the first articular surface; characterised in that the first orientation feature comprises a first planar portion positioned between and contiguous with first and second curved sections (270, 272) of the third articular surface, the first planar portion cooperating with a flattened section of the first articular surface to provide the preferred orientation about the medial/lateral axis. a first end plate comprising a first bone engagement surface securable to a first vertebral body, the first end plate further comprising a first articular surface; a second end plate comprising a second bone engagement surface securable to a second vertebral body, the second end plate further comprising a second articular surface; and a nucleus positioned between the first and second end plates, the nucleus formed separately from the first and second end plates and comprising a third articular surface; wherein the nucleus comprises a first orientation feature which cooperates with the first articular surfaces to provide a preferred orientation about a medial/lateral axis of the first end plate relative to the second end plate, wherein the nucleus further cooperates with one of the first or second articular surfaces to provide a preferred orientation about an anterior/posterior axis of the first end plate relative to the second end plate; wherein the first orientation feature is part of the third articular surface, wherein the third articular surface articulates with the first articular surface; characterised in that the first orientation feature comprises a first planar portion positioned between and contiguous with first and second curved sections (270, 272) of the third articular surface, the first planar portion cooperating with a flattened section of the first articular surface to provide the preferred orientation about the medial/lateral axis.
A customizable light strip mountable on a mounting surface, comprising: an elongated substrate; a linear LED array with a plurality of LED nodes mounted on a surface of the elongated substrate; and an interconnection structure electrically interconnecting the plurality of LED nodes, wherein the elongated substrate comprises partial separation lines between at least some of the plurality of LED nodes of the linear LED array, which partial separation lines extend from one longitudinal edge of the elongated substrate and partly across the elongated substrate and do not intersect the interconnection structure, wherein the customizable light strip after partial separation at one or more of the partial separation lines is bendable in a plane of said mounting surface, characterized in that the customizable light strip further comprises a data or detection line (50, 52, 54, 56) connected to at least some of the LED nodes and intersecting the partial separation lines, wherein the LED nodes are configured to detect the position of any partially separated partial separation line through interruption of the data or detection line (50, 52, 54, 56) intersecting that partial separation line. an elongated substrate; a linear LED array with a plurality of LED nodes mounted on a surface of the elongated substrate; and an interconnection structure electrically interconnecting the plurality of LED nodes, wherein the elongated substrate comprises partial separation lines between at least some of the plurality of LED nodes of the linear LED array, which partial separation lines extend from one longitudinal edge of the elongated substrate and partly across the elongated substrate and do not intersect the interconnection structure, wherein the customizable light strip after partial separation at one or more of the partial separation lines is bendable in a plane of said mounting surface, characterized in that the customizable light strip further comprises a data or detection line (50, 52, 54, 56) connected to at least some of the LED nodes and intersecting the partial separation lines, wherein the LED nodes are configured to detect the position of any partially separated partial separation line through interruption of the data or detection line (50, 52, 54, 56) intersecting that partial separation line.
A communication method, comprising: generating, by a base station, first indication information, wherein the first indication information is used to indicate configuration information of a first resource; generating, by the base station, second indication information, wherein the second indication information is used to indicate a relationship between a second resource and the first resource; and sending, by the base station, the first indication information and the second indication information to a terminal, so that the terminal determines a receiving resource or sending resource based on the first indication information and the second indication information, wherein the first indication information comprises a type of the first resource and a length of the first resource, wherein the type of the first resource is used to indicate whether transmitting beams are the same or different across different sub-time units in a time unit, wherein the time unit includes one or more sub-time unites and one or more Orthogonal Frequency Division Multiplexing, OFDM, symbols, and the length of the first resource is a quantity of time units; and the second indication information comprises at least one type of the following information: a time unit identifier, a sub-time unit identifier, and a reference signal received power, RSRP, sequence number. generating, by a base station, first indication information, wherein the first indication information is used to indicate configuration information of a first resource; generating, by the base station, second indication information, wherein the second indication information is used to indicate a relationship between a second resource and the first resource; and sending, by the base station, the first indication information and the second indication information to a terminal, so that the terminal determines a receiving resource or sending resource based on the first indication information and the second indication information, wherein the first indication information comprises a type of the first resource and a length of the first resource, wherein the type of the first resource is used to indicate whether transmitting beams are the same or different across different sub-time units in a time unit, wherein the time unit includes one or more sub-time unites and one or more Orthogonal Frequency Division Multiplexing, OFDM, symbols, and the length of the first resource is a quantity of time units; and wherein the type of the first resource is used to indicate whether transmitting beams are the same or different across different sub-time units in a time unit, wherein the time unit includes one or more sub-time unites and one or more Orthogonal Frequency Division Multiplexing, OFDM, symbols, and the length of the first resource is a quantity of time units; and the second indication information comprises at least one type of the following information: a time unit identifier, a sub-time unit identifier, and a reference signal received power, RSRP, sequence number.
A method for transmitting a hybrid automatic repeat request, HARQ, acknowledge, ACK, /non-acknowledge, NACK, using a time division duplex, TDD, scheme by a user equipment, UE, in a wireless communication system, the method comprising: receiving a downlink, DL, shared channel in a corresponding subframe of a UE-specific TDD frame; and transmitting the HARQ ACK/NACK for the DL shared channel in an uplink, UL, subframe located closest to the corresponding subframe from among subframes located after at least four subframes from the corresponding subframe, wherein the UE-specific TDD frame includes a UE-common subframe interval and a UE-specific subframe interval, wherein a first subframe and a second subframe in the UE-specific TDD frame are configured as the UE-common subframe interval, and remaining subframes in the UE-specific TDD frame are configured as the UE-specific subframe interval, wherein the UE-common subframe interval corresponds to a subframe interval that is commonly configured in UEs of the wireless communication system or UEs of a cell including the UE, wherein a UE-specific subframe in the UE-specific subframe interval is user-specially configured as a DL subframe, a UL subframe, or a special subframe, and wherein the first subframe is a special subframe, and the second subframe is an UL subframe. receiving a downlink, DL, shared channel in a corresponding subframe of a UE-specific TDD frame; and transmitting the HARQ ACK/NACK for the DL shared channel in an uplink, UL, subframe located closest to the corresponding subframe from among subframes located after at least four subframes from the corresponding subframe, wherein the UE-specific TDD frame includes a UE-common subframe interval and a UE-specific subframe interval, wherein a first subframe and a second subframe in the UE-specific TDD frame are configured as the UE-common subframe interval, and remaining subframes in the UE-specific TDD frame are configured as the UE-specific subframe interval, wherein the UE-common subframe interval corresponds to a subframe interval that is commonly configured in UEs of the wireless communication system or UEs of a cell including the UE, wherein a UE-specific subframe in the UE-specific subframe interval is user-specially configured as a DL subframe, a UL subframe, or a special subframe, and wherein the first subframe is a special subframe, and the second subframe is an UL subframe.
A compound of the formula wherein X 1 is H, a group of formula X 2 and X 3 are independently of each other H, or a group of formula or R 24 is a group of formula R 41 is R 42 is H, or R 21 and R 21' are independently of each other H, a C 1 -C 18 alkoxy group; a C 1 -C 18 alkyl group; or a C 1 -C 18 alkyl group which is interrupted by - O-, or a group of formula R 22, R 25, R 26, R 27, R 28, R 25', R 26', R 27', R 28', R 25", R 26", R 27", R 26", R 29, R 29', R 29", R 40, R 43 and R 44 are indepndently of each other H, a C 1 -C 16 alkoxy group; a C 1 -C 18 alkyl group; or a C 1 -C 18 alkyl group which is interrupted by - O-; with the proviso that at least one of X 1, X 2 and X 3 is a group of formula or comprises a group of formula X 1 is H, a group of formula X 2 and X 3 are independently of each other H, or a group of formula or R 24 is a group of formula R 41 is R 42 is H, or R 21 and R 21' are independently of each other H, a C 1 -C 18 alkoxy group; a C 1 -C 18 alkyl group; or a C 1 -C 18 alkyl group which is interrupted by - O-, or a group of formula R 22, R 25, R 26, R 27, R 28, R 25', R 26', R 27', R 28', R 25", R 26", R 27", R 26", R 29, R 29', R 29", R 40, R 43 and R 44 are indepndently of each other H, a C 1 -C 16 alkoxy group; a C 1 -C 18 alkyl group; or a C 1 -C 18 alkyl group which is interrupted by - O-; with the proviso that at least one of X 1, X 2 and X 3 is a group of formula or comprises a group of formula
A light source, comprising: one or more first light sources that are configured to emit first light comprising one or more first color components that occupy a first range that is beyond one or more prescribed ranges of light wavelengths; and a light converter configured to be illuminated by the first light and to convert the first light into second light, the second light comprising one or more second color components that occupy a second range within the one or more prescribed ranges of light wavelengths, each of the one or more second color components in the second light having strengths monitored by a light sensor and regulated by a light regulator to produce a particular point within a specific color gamut, characterized in that the light converter comprises one or more light modulation tiles, at least one of which is replaceable without replacing other components including other light modulation tiles in a display system. one or more first light sources that are configured to emit first light comprising one or more first color components that occupy a first range that is beyond one or more prescribed ranges of light wavelengths; and a light converter configured to be illuminated by the first light and to convert the first light into second light, the second light comprising one or more second color components that occupy a second range within the one or more prescribed ranges of light wavelengths, each of the one or more second color components in the second light having strengths monitored by a light sensor and regulated by a light regulator to produce a particular point within a specific color gamut, characterized in that the light converter comprises one or more light modulation tiles, at least one of which is replaceable without replacing other components including other light modulation tiles in a display system.
A system for insuring efficiency of a serial link, wherein the system comprises: a fabric switch having a plurality of upstream ports (240, 242, 244, 246) and comprising a fabric controller and a memory; a host server including a BIOS and a baseboard management controller, the host server having a plurality of ports (270, 272, 274, 276) coupled to a plurality of serial link ports via cables (250, 252, 254, 256) to form lanes of the serial link; the memory being accessible by the baseboard management controller; and wherein an inter-integrated circuit (I2C) bus between the baseboard management controller of the host server and the fabric controller allows both the baseboard management controller and the fabric controller to share the memory; wherein the baseboard management controller reads an expected speed and width of the serial link from the memory; when the host server powers on, the BIOS gets the expected speed and width from the baseboard management controller and determines an actual speed and width of the serial link, and the baseboard management controller sends an error message if the actual speed or actual width do not match the expected speed or expected width; wherein the expected speed and width is stored in the memory by the fabric controller. a fabric switch having a plurality of upstream ports (240, 242, 244, 246) and comprising a fabric controller and a memory; a host server including a BIOS and a baseboard management controller, the host server having a plurality of ports (270, 272, 274, 276) coupled to a plurality of serial link ports via cables (250, 252, 254, 256) to form lanes of the serial link; the memory being accessible by the baseboard management controller; and wherein an inter-integrated circuit (I2C) bus between the baseboard management controller of the host server and the fabric controller allows both the baseboard management controller and the fabric controller to share the memory; wherein the baseboard management controller reads an expected speed and width of the serial link from the memory; when the host server powers on, the BIOS gets the expected speed and width from the baseboard management controller and determines an actual speed and width of the serial link, and the baseboard management controller sends an error message if the actual speed or actual width do not match the expected speed or expected width; wherein the expected speed and width is stored in the memory by the fabric controller.
A non-volatile memory cell comprising: an anti-fuse transistor formed on a substrate having a polysilicon gate over a channel region having a channel length; a diffusion region proximate to a first end of the channel region; a field oxide region proximate to a second end of the channel region; a variable thickness gate oxide between the polysilicon gate and the substrate, characterized in that the variable thickness gate oxide has a first thick gate oxide (508, 604) extending from the first end of the channel region to a first distance of the channel length; a second thick gate oxide (510, 606) adjacent the first thick gate oxide extending from the first end of the channel region to a second distance of the channel length different from the first predetermined distance of the channel length, the first thick gate oxide (508, 604) and the second thick gate oxide (510, 606) being sized for covering the channel region; and, a thin gate oxide portion extending from the second distance to the second end of the channel region. an anti-fuse transistor formed on a substrate having a polysilicon gate over a channel region having a channel length; a diffusion region proximate to a first end of the channel region; a field oxide region proximate to a second end of the channel region; a variable thickness gate oxide between the polysilicon gate and the substrate, characterized in that the variable thickness gate oxide has a first thick gate oxide (508, 604) extending from the first end of the channel region to a first distance of the channel length; a second thick gate oxide (510, 606) adjacent the first thick gate oxide extending from the first end of the channel region to a second distance of the channel length different from the first predetermined distance of the channel length, the first thick gate oxide (508, 604) and the second thick gate oxide (510, 606) being sized for covering the channel region; and, a thin gate oxide portion extending from the second distance to the second end of the channel region.
A communications method for use in a communications system including a first cell including a first base station and at least a first wireless terminal, the method comprising operating the first base station to transmit signals on a plurality of different communications channels, each individual one of the plurality of different communications channels each having a physical characteristic which is detectable by said first wireless terminal, transmitting signals on the plurality of different communications channels including periodically changing at least one signal transmission characteristic of a first communications channel in said plurality of communications channels to introduce an intentional variation into said first communications channel which results in a change in said physical characteristic corresponding to the first communications channel, and selecting between said plurality of different communications channels for purposes of transmitting signals to said first wireless terminal in response to feedback information received from said first wireless terminal indicating the one of the plurality of different communications channels which provides the best transmission channel conditions for transmissions to the first wireless terminal at a particular point in time; and wherein said different communications channels consist of different portions of air link resource that is partitioned in at least one of time and frequency dimension.
A frame lock for a two-wheeler, said frame lock comprising a lock body, which comprises a latch, and a rotary hoop which extends along a circular path and which is adjustable relative to the lock body along the circular path between an open position, in which said rotary hoop releases a wheel of the two-wheeler for a rotation, and a closed position in which said rotary hoop blocks the wheel against rotation, wherein the rotary hoop has a blocking structure comprising an abutment section, wherein the latch is adjustable between an unlocked position and a locked position, and wherein, when the rotary hoop is in its closed position and the latch is in its locked position, the latch engages behind the abutment section and thereby blocks the rotary hoop against an adjustment into the open position, characterized in that the rotary hoop is configured as an injection molded part composed of a plastic with an insert composed of a different material that has a greater strength and/or hardness compared to the plastic. wherein the rotary hoop has a blocking structure comprising an abutment section, wherein the latch is adjustable between an unlocked position and a locked position, and wherein, when the rotary hoop is in its closed position and the latch is in its locked position, the latch engages behind the abutment section and thereby blocks the rotary hoop against an adjustment into the open position, characterized in that the rotary hoop is configured as an injection molded part composed of a plastic with an insert composed of a different material that has a greater strength and/or hardness compared to the plastic.
A method for wireless communications at a user equipment, UE (115, 1153-d), comprising: receiving a measurement configuration (310, 310a, 310b, 315, 315a, 315b, 405) from a network device for measuring cross link interference, wherein the measurement configuration (310, 310a, 310b, 315, 315a, 315b) indicates a first measurement direction configuration for measuring the cross link interference; receiving a priority rule from the network device; selecting between the first measurement direction configuration for measuring the cross link interference and a second measurement direction configuration for receiving a downlink message (320, 320a) based at least in part on the priority rule; measuring the cross link interference; and transmitting a measurement report based at least in part on measuring the cross link interference to the network device. receiving a measurement configuration (310, 310a, 310b, 315, 315a, 315b, 405) from a network device for measuring cross link interference, wherein the measurement configuration (310, 310a, 310b, 315, 315a, 315b) indicates a first measurement direction configuration for measuring the cross link interference; receiving a priority rule from the network device; selecting between the first measurement direction configuration for measuring the cross link interference and a second measurement direction configuration for receiving a downlink message (320, 320a) based at least in part on the priority rule; measuring the cross link interference; and transmitting a measurement report based at least in part on measuring the cross link interference to the network device.
A thermoplastic polymer composition comprising 1 to 350 parts by mass of a filler with respect to 100 parts by mass of polymer components that comprise 50 to 90% by mass of an ethylene/unsaturated ester copolymer; 1 to 40% by mass of a propylene polymer having a melting point as measured by differential scanning calorimetry of from 120 to 170°C; and 1 to 49% by mass of a propylene-based polymer having a melting point as measured by differential scanning calorimetry of lower than 120°C or not being observed, provided that the total amount of, and is 100% by mass.