mhurhangee/ep-ind-claims huggingface dataset:
A system for establishing an intramedullary path, comprising: a body defining a first aperture that extends through the body, the first aperture sized and configured to receive a surgical tool therethrough; and a first bone engaging structure extending from the body in a first direction, the first bone engaging structure including a first surface; wherein when the first surface of the bone engaging structure engages a surface topography of a first bone, characterized in that the body is sized and configured to be received within a resected bone space and is custom manufactured, whereby the first surface of the first bone engaging structure is complementary to a surface topography of a first bone and an axis defined by the first aperture is substantially collinear with a mechanical axis of the first bone. a body defining a first aperture that extends through the body, the first aperture sized and configured to receive a surgical tool therethrough; and a first bone engaging structure extending from the body in a first direction, the first bone engaging structure including a first surface; wherein when the first surface of the bone engaging structure engages a surface topography of a first bone, characterized in that the body is sized and configured to be received within a resected bone space and is custom manufactured, whereby the first surface of the first bone engaging structure is complementary to a surface topography of a first bone and an axis defined by the first aperture is substantially collinear with a mechanical axis of the first bone.
A die package (150; 100; 160; 180; 182; 410; 440; 1100) comprising: a die (152; 120; 162a-d; 170; 416) having a plurality of connection pads; a die substrate (154; 102; 418) supporting a plurality of connection elements; a first lead (156; 110; 164a; 166a; 176; 412) having a first metal core with a first metal core diameter, a first dielectric layer surrounding said first metal core having a first dielectric thickness, and a first outer metal layer surrounding said first dielectric layer, said first outer metal layer attached to a first groundplane; and a second lead (156; 112; 164b; 166b; 176; 414) having a second metal core with a second metal core diameter, a second dielectric layer surrounding said second metal core having a second dielectric thickness, and a second outer metal layer surrounding said second dielectric layer, said second outer metal layer attached to a second groundplane; such that susceptibility to electromagnetic interference EMI and crosstalk between the first and second leads are reduced. a die (152; 120; 162a-d; 170; 416) having a plurality of connection pads; a die substrate (154; 102; 418) supporting a plurality of connection elements; a first lead (156; 110; 164a; 166a; 176; 412) having a first metal core with a first metal core diameter, a first dielectric layer surrounding said first metal core having a first dielectric thickness, and a first outer metal layer surrounding said first dielectric layer, said first outer metal layer attached to a first groundplane; and a second lead (156; 112; 164b; 166b; 176; 414) having a second metal core with a second metal core diameter, a second dielectric layer surrounding said second metal core having a second dielectric thickness, and a second outer metal layer surrounding said second dielectric layer, said second outer metal layer attached to a second groundplane; such that susceptibility to electromagnetic interference EMI and crosstalk between the first and second leads are reduced.
A method comprising: sending a first message from a programmable logic controller to a module, said first message transmitted via a first 8B/10B encoded frame that maps 8-bit symbols to 10-bit symbols, the first message comprising a destination address that is an eight bit default module address of said module, said first message used to set a module address of said module to an assigned address value and to cause said module to transmit a reply message to the programmable logic controller via a second 8B/10B encoded frame, the reply message comprising a source address that confirms said assigned address value has been assigned to said module by said first message, said first 8B/10B encoded frame comprising a message type field of a size of eight bits, a value stored in said message type field indicative of content of a data field of said first 8B/10B encoded frame, said message type field following a first ordered sequence of fields comprised by said first 8B/10B encoded frame, said first ordered sequence of fields comprising, in the following order, a preamble field, a start-of-frame field, a destination address field, a length field specifying the number of bytes in the message, and a source address field, said message type field followed by a second ordered sequence of fields comprised by said first 8B/10B encoded frame, said second ordered sequence comprising, in the following order, a data field, a cyclic redundancy check field of a size of 32 bits, and an end of frame field. sending a first message from a programmable logic controller to a module, said first message transmitted via a first 8B/10B encoded frame that maps 8-bit symbols to 10-bit symbols, the first message comprising a destination address that is an eight bit default module address of said module, said first message used to set a module address of said module to an assigned address value and to cause said module to transmit a reply message to the programmable logic controller via a second 8B/10B encoded frame, the reply message comprising a source address that confirms said assigned address value has been assigned to said module by said first message, said first 8B/10B encoded frame comprising a message type field of a size of eight bits, a value stored in said message type field indicative of content of a data field of said first 8B/10B encoded frame, said message type field following a first ordered sequence of fields comprised by said first 8B/10B encoded frame, said first ordered sequence of fields comprising, in the following order, a preamble field, a start-of-frame field, a destination address field, a length field specifying the number of bytes in the message, and a source address field, said message type field followed by a second ordered sequence of fields comprised by said first 8B/10B encoded frame, said second ordered sequence comprising, in the following order, a data field, a cyclic redundancy check field of a size of 32 bits, and an end of frame field.
Zileuton for use in the treatment of nasal polyps in a patient having cystic fibrosis, wherein zileuton is administered at a dose of from 450 milligrams to 2400 milligrams per day.
A method of adjusting the elemental composition of a titanium melt, the method comprising: adding into the melt a predetermined quantity of titanium dioxide particles, in the form of at least one formed article consisting of the titanium dioxide particles bound together by 5% to 60% by weight of at least one organic polymer binder.
A method for calibrating an imaging system, the imaging system being based on light triangulation for capturing information on three dimensional characteristics of a target object by means of one or more cameras arranged at first one or more positions for detecting light reflected from said target object, said system comprising said one or more cameras at said first positions, wherein the method comprises an action of calibrating the imaging system using a calibration target object within respective field of view of said cameras so that the cameras are able to detect light reflected from one or more surface structures of the calibration target object, said one or more surface structures having a first surface structure comprising one or more regular right pyramidal recesses (410; 510a-b; 610) and one or more regular right pyramids (420a-c; 520a-c; 620a-c), with their respective bases in the same plane and their respective apexes (412, 422a-c; 512a-b, 522a-c; 612, 622a-c) at the same orthogonal distance from that same plane, where the lateral faces (423; 523; 623) of the respective regular right pyramids (420a-c; 520a-c; 620a-c) correspond to the lateral faces (413; 513; 613) of the regular right pyramidal recesses (410; 510a-b; 610), there being at least three regular right pyramids (420a-c; 520a-c; 620a-c) or at least three regular right pyramidal recesses (410; 510a-b; 610), wherein the base of at least one of said regular right pyramidal recesses (410; 510a-b; 610) shares at least one side with the base of at least one of said regular right pyramids (420a-c; 520a-c; 620a-c), such that each pair of lateral faces (413-1, 423a-3; 513b-2, 523c-2; 613-1, 623a-2) sharing side are located in a common plane.
Detergent composition for disinfecting and degreasing building surfaces and floors, comprising: - an ammonium halide, in which the ammonium comprises two alkyl chains each comprising from 1 to 3 carbon atoms and two alkyl chains each comprising from 7 to 14 carbon atoms; - an amino alcohol; - an alcohol; - a base composed of a metal hydroxide; - a sequestrant; and - a halochromic compound with a transition range below the pH of the composition. - an ammonium halide, in which the ammonium comprises two alkyl chains each comprising from 1 to 3 carbon atoms and two alkyl chains each comprising from 7 to 14 carbon atoms; - an amino alcohol; - an alcohol; - a base composed of a metal hydroxide; - a sequestrant; and - a halochromic compound with a transition range below the pH of the composition.
A composition useful for removing residue from a semiconductor substrate comprising: from 2 to 15% by wt. of hydroxylamine; from 50 to 80% by wt. of water; from 0.01 to 5.0% by wt. of corrosion inhibitor; from 5 to 45% by wt. of a component selected from the group consisting of: one or more alkanolamines each having a pKa<9.0 selected from the group consisting of: triethanolamine, diethanolamine, diisopropanolamine, N-methyldiethanolamine; and optionally one or more water-miscible solvents. from 2 to 15% by wt. of hydroxylamine; from 50 to 80% by wt. of water; from 0.01 to 5.0% by wt. of corrosion inhibitor; from 5 to 45% by wt. of a component selected from the group consisting of: one or more alkanolamines each having a pKa<9.0 selected from the group consisting of: triethanolamine, diethanolamine, diisopropanolamine, N-methyldiethanolamine; and optionally one or more water-miscible solvents.
Antenna (300, 500, 600, 700, 800, 900, 1001, 1002), comprising: - at least one electromagnetic lens (302, 402, 502, 601, 701, 801, 901, 1006, 1013), - at least one ground plane (301, 401, 501, 604, 702, 803, 903, 1007, 1014) connected to said lens (302, 402, 502, 601, 701, 801, 901, 1006, 1013), and - at least one probing structure connected to said lens (302, 402, 502, 601, 701, 801, 901, 1006, 1013), said probing structure comprising at least two probes (303a, 303b, 403a, 403b, 503a, 503b, 503c, 503d, 503e, 602, 603, 805a, 805b, 1003, 1004, 1005, 1011,1012), characterized in that said probes (303a, 303b, 403a, 403b, 503a, 503b, 503c, 503d, 503e, 602, 603, 805a, 805b, 1003, 1004, 1005, 1011,1012) are enclosed by the lens (302, 402, 502, 601, 701, 801, 901, 1006, 1013), and in that the mutual orientation of at least two probes is such that said probes are positioned at least partially out of the electromagnetic line of sight of each other, wherein the electromagnetic line of sight is interrupted, such that the probes (303a, 303b, 403a, 403b, 503a, 503b, 503c, 503d, 503e, 602, 603, 805a, 805b, 1003, 1004, 1005, 1011,1012) do not see each other from an electromagnetic point of view. - at least one electromagnetic lens (302, 402, 502, 601, 701, 801, 901, 1006, 1013), - at least one ground plane (301, 401, 501, 604, 702, 803, 903, 1007, 1014) connected to said lens (302, 402, 502, 601, 701, 801, 901, 1006, 1013), and - at least one probing structure connected to said lens (302, 402, 502, 601, 701, 801, 901, 1006, 1013), said probing structure comprising at least two probes (303a, 303b, 403a, 403b, 503a, 503b, 503c, 503d, 503e, 602, 603, 805a, 805b, 1003, 1004, 1005, 1011,1012),
An image decoding method performed by a decoding apparatus operating according to the versatile video coding, VVC, standard, the method comprising: receiving residual information for a current block; deriving a context index for a sign flag of a current residual coefficient in a current sub-block of the current block; decoding the sign flag based on the context index; deriving the current residual coefficient based on the sign flag; deriving a residual sample based on the current residual coefficient; and generating a reconstructed picture based on the residual sample, wherein it is determined whether the current block is a transform skip block, and based on the current block being the transform skip block, sign flags of residual coefficients of the current block including the current residual coefficient are context-based decoded, characterized in that the context index for the sign flag is derived based on a sign flag of a residual coefficient decoded prior to the current residual coefficient in the current sub-block, wherein a value of the context index is derived as 0, based on the current residual coefficient being a first residual coefficient in scan order in the current sub-block, wherein, when a value of the sign flag of the residual coefficient decoded prior to the current residual coefficient is 0, a value of the context index for the sign flag of the current residual coefficient is derived as 0, wherein, when the value of the sign flag of the residual coefficient decoded prior to the current residual coefficient is 1, a value of the context index for the sign flag of the current residual coefficient is derived as 1. receiving residual information for a current block; deriving a context index for a sign flag of a current residual coefficient in a current sub-block of the current block; decoding the sign flag based on the context index; deriving the current residual coefficient based on the sign flag; deriving a residual sample based on the current residual coefficient; and generating a reconstructed picture based on the residual sample, wherein it is determined whether the current block is a transform skip block, and based on the current block being the transform skip block, sign flags of residual coefficients of the current block including the current residual coefficient are context-based decoded, characterized in that the context index for the sign flag is derived based on a sign flag of a residual coefficient decoded prior to the current residual coefficient in the current sub-block, wherein a value of the context index is derived as 0, based on the current residual coefficient being a first residual coefficient in scan order in the current sub-block, wherein, when a value of the sign flag of the residual coefficient decoded prior to the current residual coefficient is 0, a value of the context index for the sign flag of the current residual coefficient is derived as 0, wherein, when the value of the sign flag of the residual coefficient decoded prior to the current residual coefficient is 1, a value of the context index for the sign flag of the current residual coefficient is derived as 1.
A method for managing a Multimedia Broadcast Service, MBS, service, comprising: receiving, by a terminal device, MBS configuration information sent by a network device, wherein the MBS configuration information is used for determining an MBS service identity; wherein the MBS service identity comprises a Group Radio Network Temporary Identity, G-RNTI; receiving, by the terminal device, a first command sent by the network device, wherein the first command is used for deactivating at least one MBS service configured by the MBS configuration information and/or activating at least one MBS service configured by the MBS configuration information; and deactivating, by the terminal device, at least one MBS service and/or activating at least one MBS service based on the first command; wherein deactivating, by the terminal device, at least one MBS service further comprising: stopping monitoring a first Physical Downlink Control Channel, PDCCH, wherein the first PDCCH is a PDCCH scrambled by the G-RNTI corresponding to the MBS service. receiving, by a terminal device, MBS configuration information sent by a network device, wherein the MBS configuration information is used for determining an MBS service identity; wherein the MBS service identity comprises a Group Radio Network Temporary Identity, G-RNTI; receiving, by the terminal device, a first command sent by the network device, wherein the first command is used for deactivating at least one MBS service configured by the MBS configuration information and/or activating at least one MBS service configured by the MBS configuration information; and deactivating, by the terminal device, at least one MBS service and/or activating at least one MBS service based on the first command; wherein deactivating, by the terminal device, at least one MBS service further comprising: stopping monitoring a first Physical Downlink Control Channel, PDCCH, wherein the first PDCCH is a PDCCH scrambled by the G-RNTI corresponding to the MBS service.
Transfer apparatus for transferring press-in elements in or on a press-bound sheet-metal processing tool, having a lower coupling device held on a lower tool part and having an upper coupling device held on an upper tool part, wherein these coupling devices engage in one another during the press-cycle-bound closing of the sheet-metal processing tool and in the process allow the transfer of at least one bolt-like press-in element, wherein the coupling devices, while engaging with one another, form a continuous and barrier-free transfer channel with a vertical orientation, through which at least one press-in element to be transferred can be fired, characterized in that, in order to transfer bolt-like press-in elements, the lower coupling device has a tube element and the upper coupling device has a sleeve element, which are configured and arranged such that the tube element can pass into the sleeve element without contact during the closing of the sheet-metal processing tool, wherein the inner recess of the sleeve element is configured in the lower region such that the tube element can pass in, and in the upper region has a transition region, formed by a narrowing, chamfer or rounded portion, that has a centring action on the bolt-like press-in element to be transferred.
Temperature-dependent switch, which has a first and a second stationary contact (48, 50) and a temperature-dependent switching mechanism with a movable contact element, wherein, in its first switching position, the switching mechanism presses the contact element against the first contact and produces an electrically conductive connection between the two contacts (48, 50) via the contact element and, in its second switching position, holds the contact element at a distance from the first contact and therefore interrupts the electrically conductive connection between the two contacts (48, 50), wherein the temperature-dependent switching mechanism has a temperature-dependent snap-action part which, when a switching temperature is exceeded, snaps over from its geometric low-temperature configuration into its geometric high-temperature configuration and, when a reset switching temperature is subsequently undershot, snaps over from its geometric high-temperature configuration back into its geometric low-temperature configuration again, wherein a snapping action of the temperature-dependent snap-action part from its geometric low-temperature configuration into its geometric high-temperature configuration moves the switching mechanism from its first switching position into its second switching position and therefore opens the switch, and wherein a closure lock is provided which, as soon as it is activated, prevents renewed closure of the opened switch, in which it holds the switching mechanism in its second switching position, wherein the closure lock has a temperature-dependent armature element 54) and a mating holder interacting with the armature element and having an opening, wherein, when an armature switching temperature is exceeded, the armature element is configured to change shape from a first shape, in which the armature element fits through the opening, so that the closure lock is not activated, into a second shape, in which the armature element no longer fits through the opening, so that the closure lock is activated, characterized in that the armature element has a bimetallic part or a component made of a shape memory alloy.
An endoscope, comprising: a shaft having a longitudinal axis, a first image sensor facing a distal direction, and a second image sensor facing a lateral direction; a tubular member having a lumen, wherein the tubular member includes a distal portion that is bendable relative to a proximal portion of the tubular member, the lumen having a distal-end opening and the distal portion of the tubular member defining a longitudinal axis through a center of the lumen, the tubular member being movable between a first configuration and a second configuration; and a medical device positioned within the tubular member; wherein in the first configuration of the tubular member, the longitudinal axis of the distal portion of the tubular member is parallel to the longitudinal axis of the shaft; and wherein in the second configuration of the tubular member, the longitudinal axis of the distal portion of the tubular member extends through a lateral opening in a wall of the shaft, wherein the wall of the shaft includes a distal-facing indentation configured to receive and secure the medical device relative to the wall of the shaft, such that the medical device can be pressed between a wall of the distal portion of the tubular member and the indentation. a shaft having a longitudinal axis, a first image sensor facing a distal direction, and a second image sensor facing a lateral direction; a tubular member having a lumen, wherein the tubular member includes a distal portion that is bendable relative to a proximal portion of the tubular member, the lumen having a distal-end opening and the distal portion of the tubular member defining a longitudinal axis through a center of the lumen, the tubular member being movable between a first configuration and a second configuration; and a medical device positioned within the tubular member; wherein in the first configuration of the tubular member, the longitudinal axis of the distal portion of the tubular member is parallel to the longitudinal axis of the shaft; and wherein in the second configuration of the tubular member, the longitudinal axis of the distal portion of the tubular member extends through a lateral opening in a wall of the shaft, wherein the wall of the shaft includes a distal-facing indentation configured to receive and secure the medical device relative to the wall of the shaft, such that the medical device can be pressed between a wall of the distal portion of the tubular member and the indentation.