mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a multi-layer matrix, said matrix comprising at least two layers of an elastic biocompatible polymeric material and at least one layer of a viscoelastic biocompatible polymeric material, wherein (i) said layer of said viscoelastic polymeric material is interposed between two of said layers of said elastic polymeric material; (ii) said viscoelastic polymeric material comprises a polymer characterized by a glass transition temperature and/or melting point at a temperature below 40 °C; (iii) wherein each of said layers of the elastic polymeric material is characterized by a recovery of at least 75%, and is in a form of a porous layer of electrospun fibers; and wherein a surface of said matrix comprises a tissue-adhesive material comprising any one of: (i) dry combination of thrombin and fibrinogen, (ii) albumin, (iii) a polymer comprising a functional group that can react with a surface protein to form a covalent bond. (i) said layer of said viscoelastic polymeric material is interposed between two of said layers of said elastic polymeric material; (ii) said viscoelastic polymeric material comprises a polymer characterized by a glass transition temperature and/or melting point at a temperature below 40 °C; (iii) wherein each of said layers of the elastic polymeric material is characterized by a recovery of at least 75%, and is in a form of a porous layer of electrospun fibers; and wherein a surface of said matrix comprises a tissue-adhesive material comprising any one of: (i) dry combination of thrombin and fibrinogen, (ii) albumin, (iii) a polymer comprising a functional group that can react with a surface protein to form a covalent bond.
A method for adaptive error-tolerant pattern-recognition in the transfer of digital data packets, a) in which an actual data pattern, consisting of n bits, is detected and compared with a theoretical n-bit data pattern, wherein n corresponds to one or more bytes, b) erroneous and/or correctly recognized bits are recorded, c) erroneous and/or correctly recognized bits are added up in each case, d) the number of the errors of the added-up erroneous bits is compared with a specifiable permissible maximum error number, characterised in that e) the number of the permissible maximum error number is increased or reduced in order to achieve and maintain a successful synchronization, wherein up to (1⁄2 n-1) bits in the actual data pattern may be erroneous in comparison with the theoretical data pattern. a) in which an actual data pattern, consisting of n bits, is detected and compared with a theoretical n-bit data pattern, wherein n corresponds to one or more bytes, b) erroneous and/or correctly recognized bits are recorded, c) erroneous and/or correctly recognized bits are added up in each case, d) the number of the errors of the added-up erroneous bits is compared with a specifiable permissible maximum error number, characterised in that e) the number of the permissible maximum error number is increased or reduced in order to achieve and maintain a successful synchronization, wherein up to (1⁄2 n-1) bits in the actual data pattern may be erroneous in comparison with the theoretical data pattern.
Apparatus for use by a person to provide feedback relating to at least one parameter in relation to a particular item, event or service which is determined at the start of use of the apparatus in particular period of time and with which the person interacts, said apparatus includes a plurality of device bodies (4; 102), each including at least one user interaction means located with or on the device body for selective use by the person, and a transmitter (50,55), data representative of the use of the said user interaction means is stored in and/or transmitted from the device body (4;102) to an intermediate communication device (6;104) of the said person within wireless range or connectable to the device body (4;102) and subsequently transmitted from the said intermediate communication device (6;104) to a database for collection and processing means (8;106) for further processing said data received from the plurality of device bodies and said processing means identify the sequence of operation of the said interaction means to identify which of a range of possible responses has been input by the person and allocates the response data to the said determined item, event or service in relation to which the said plurality of device bodies (4;102) have been associated for said particular period of time, and further wherein that the said plurality of said device bodies (4;102) are controlled by the said control means and/or include power supply means such that the plurality of said device bodies (4;102) are limited to operate for the same particular period of time in relation to the same said determined item, event or service.
A method for queue management of Protocol Data Units, PDUs, in a node (102, 300, 50), the method comprising: - receiving (106, 202, 402) a flow of PDUs, - associating (204, 408) each PDU of the received PDUs with a flow reference that is determined based on information elements in at least each PDU header, - grouping (108, 206, 410) all PDUs having same flow reference into respective sub flows, - detecting a triggering condition comprising one of: receipt of Medium Access Control, MAC, layer information, receipt of information related to a control layer of Radio Link Control, RLC, and receipt of a PDU into a sub flow, - in response to the step of detecting the triggering condition, determining (108, 208, 414) a priority indicator for each sub flow based on length of the sub flows and a number of PDUs in each sub flow, - selecting (110, 210, 416) one or more PDUs from the sub flows in an order of the sub flows which is indicated by the priority indicator, and - sending (112, 212, 420) the selected one or more PDUs. - receiving (106, 202, 402) a flow of PDUs, - associating (204, 408) each PDU of the received PDUs with a flow reference that is determined based on information elements in at least each PDU header, - grouping (108, 206, 410) all PDUs having same flow reference into respective sub flows, - detecting a triggering condition comprising one of: receipt of Medium Access Control, MAC, layer information, receipt of information related to a control layer of Radio Link Control, RLC, and receipt of a PDU into a sub flow, - in response to the step of detecting the triggering condition, determining (108, 208, 414) a priority indicator for each sub flow based on length of the sub flows and a number of PDUs in each sub flow, - selecting (110, 210, 416) one or more PDUs from the sub flows in an order of the sub flows which is indicated by the priority indicator, and - sending (112, 212, 420) the selected one or more PDUs.
A system intended to aid in the surgical correction of malformed regions of the skull, wherein the system comprises a skull template corresponding to the size and desired head form of a patient, characterised in that the system further comprises a holding frame and at least one bowed clamp-frame arranged around said skull template, the system further comprising a supporting stand for fixing the holding frame at its lateral ends in such a manner that the holding frame is freely rotatable and fixable in any angle, wherein the skull template is firmly connected to the holding frame; said holding frame providing means for fixation of the at least one bowed clamp-frame, the system further comprising at least one clamp-holder for taking up a clamp-plunger and at least one fixation pin for fixation of bone pieces that can thereby be fixed by the at least one bowed clamp-frame onto the skull template.
An exposure equipment used with a light emitting portion that generates pulsed light having a light emitting period (De) by producing plasma from a target material supplied intermittently from a supply portion, comprising: a reticle stage on which a reticle to be irradiated with said pulsed light is arranged and movable along a scanning direction during a scan exposure time; a photosensitive substrate stage on which a photosensitive substrate to be irradiated with the pulsed light is arranged and movable along the scanning direction at a drive control period (Ds) during the scan exposure time, the pulsed light being patterned by said reticle; and a control portion adapted for obtaining information regarding a drive timing of said photosensitive substrate stage and a light emission timing of said pulsed light before exposure onto said photosensitive substrate is started, and for controlling a movement of said photosensitive substrate stage so that a timing of said photosensitive substrate stage reaching an exposure starting point or an exposure ending point and a timing of said pulsed light reaching said photosensitive substrate coincide with each other based on the obtained information. a reticle stage on which a reticle to be irradiated with said pulsed light is arranged and movable along a scanning direction during a scan exposure time; a photosensitive substrate stage on which a photosensitive substrate to be irradiated with the pulsed light is arranged and movable along the scanning direction at a drive control period (Ds) during the scan exposure time, the pulsed light being patterned by said reticle; and a control portion adapted for obtaining information regarding a drive timing of said photosensitive substrate stage and a light emission timing of said pulsed light before exposure onto said photosensitive substrate is started, and for controlling a movement of said photosensitive substrate stage so that a timing of said photosensitive substrate stage reaching an exposure starting point or an exposure ending point and a timing of said pulsed light reaching said photosensitive substrate coincide with each other based on the obtained information.
View system for a vehicle (10, 10A, 10B, 10C), comprising at least one capture unit (20A, 20B) which is adapted to capture at least one first near area (1, 2, 3, 4) around the vehicle (10, 10A, 10B, 10C), at least one control unit which is adapted to process the data captured by the capture unit (20A, 20B), and at least one reproduction unit (40A, 40B) which is adapted to show the near area (1, 2, 3, 4) visibly for a driver steering the vehicle (10, 10A, 10B, 10C), wherein, in driving maneuvers conditioned by the situation, at least one collision area (K1, K2) which comprises an area at risk of collision around the vehicle (10, 10A, 10B, 10C) is additionally shown on the reproduction unit (40A, 40B), and wherein the collision area (K1, K2) corresponds to an image section of a near area (1, 2, 3, 4) around the vehicle (10, 10A, 10B, 10C) captured by the capture unit (20A, 20B), wherein a plurality of collision areas (K1, K2) are shown at the same time on the at least one reproduction unit (40A, 40B) the image section is adapted continuously and in real time with continuation of a driving maneuver, and the view system further comprises a sensor unit which detects a driving maneuver conditioned by the situation by receiving a corresponding input signal and which determines the corresponding collision areas (K1, K2) based on the input signal.
A cutting burr having a shank with an engagement end at a proximal end of the shank adapted to be received by a surgical drill, comprising: a first six-sided, diamond-shaped portion formed at the proximal end of the shank and having first side edges (34b, 34c), the first diamond-shaped portion having a first pair of facets (34, 34a) that meet at a first apex and an opposing second pair of facets; and a second six-sided, diamond-shaped portion axially spaced along a shaft of the shank from the first diamond-shaped portion and having second side edges (30b, 30c), the second diamond-shaped portion having a third pair of facets (30, 30a) that meet at a second apex and an opposing fourth pair of facets, wherein the first diamond-shaped portion is adapted to be inserted into a complementary shaped mating recess of the surgical drill, and wherein the second diamond-shaped portion is adapted to mate with a complementary locking pawl of the surgical drill, characterized in that: the first side edges (34b, 34c) and second side edges (30b, 30c) are arched having a radius of curvature of an outside diameter of the shank. a first six-sided, diamond-shaped portion formed at the proximal end of the shank and having first side edges (34b, 34c), the first diamond-shaped portion having a first pair of facets (34, 34a) that meet at a first apex and an opposing second pair of facets; and a second six-sided, diamond-shaped portion axially spaced along a shaft of the shank from the first diamond-shaped portion and having second side edges (30b, 30c), the second diamond-shaped portion having a third pair of facets (30, 30a) that meet at a second apex and an opposing fourth pair of facets, wherein the first diamond-shaped portion is adapted to be inserted into a complementary shaped mating recess of the surgical drill, and wherein the second diamond-shaped portion is adapted to mate with a complementary locking pawl of the surgical drill, characterized in that: the first side edges (34b, 34c) and second side edges (30b, 30c) are arched having a radius of curvature of an outside diameter of the shank. the first side edges (34b, 34c) and second side edges (30b, 30c) are arched having a radius of curvature of an outside diameter of the shank.
A turbine combustion system transition exit seal apparatus comprising: a seal strip comprising a length, a width, an imperforate minimum thickness, a central portion with a first thickness over the length of the strip, and first and second side portions (70, 72), each side portion (70, 72) comprising a thickness greater than the first thickness adjacent the central portion along the length of the strip; wherein the first and second side portions (70, 72) comprise a respective first and second series of transverse slots along the length of the strip characterised in that the first thickness is the minimum thickness of the seal strip, and the transverse slots each define regions of the minimum thickness within the respective side portions (70, 72). a seal strip comprising a length, a width, an imperforate minimum thickness, a central portion with a first thickness over the length of the strip, and first and second side portions (70, 72), each side portion (70, 72) comprising a thickness greater than the first thickness adjacent the central portion along the length of the strip; wherein the first and second side portions (70, 72) comprise a respective first and second series of transverse slots along the length of the strip characterised in that the first thickness is the minimum thickness of the seal strip, and the transverse slots each define regions of the minimum thickness within the respective side portions (70, 72).
A coating material composition which contains coated film forming resin, crosslinking agent, and resin beads, where the compression strength of said resin beads at the time of the 10% pressurized deformation of an individual resin bead by means of a micro-compression tester lies between 0.1 MPa and 20 MPa and, furthermore, the recovery of the resin beads following the 90% pressurized deformation of an individual resin bead by means of a micro-compression tester is at least 80%.
A method for geo-fence notification management at a mobile device, the method comprising: determining a geographical location of the mobile device; identifying that the mobile device has entered a geo-fence, wherein identifying that the mobile device has entered the geo-fence comprises transmitting the geographical location to a server; and receiving an indication from the server that the mobile device is in the geo-fence; after identifying that the mobile device has entered the geo-fence, initiating a delay timer having a delay period, the delay timer to track an amount of time the mobile device is in the geo-fence; after the delay period expires, polling the server to determine whether the mobile device continues to be within the geo-fence; generating an alert when it is determined that the mobile device dwells in the geo-fence for longer than the delay period, the alert to provide a notification for when the mobile device is determined to have dwelled in the geo-fence for longer than the delay period, and notifications associated with the geofence are not presented to the user when the mobile device is determined to have dwelled in the geo-fence for less than the delay period; wherein the delay period is configurable to be the same as a polling period, the polling period to define an interval to periodically check whether the mobile device is in the geo-fence. determining a geographical location of the mobile device; identifying that the mobile device has entered a geo-fence, wherein identifying that the mobile device has entered the geo-fence comprises transmitting the geographical location to a server; and receiving an indication from the server that the mobile device is in the geo-fence; after identifying that the mobile device has entered the geo-fence, initiating a delay timer having a delay period, the delay timer to track an amount of time the mobile device is in the geo-fence; after the delay period expires, polling the server to determine whether the mobile device continues to be within the geo-fence; generating an alert when it is determined that the mobile device dwells in the geo-fence for longer than the delay period, the alert to provide a notification for when the mobile device is determined to have dwelled in the geo-fence for longer than the delay period, and notifications associated with the geofence are not presented to the user when the mobile device is determined to have dwelled in the geo-fence for less than the delay period; wherein the delay period is configurable to be the same as a polling period, the polling period to define an interval to periodically check whether the mobile device is in the geo-fence.
An aircraft, comprising: a nacelle configured as a housing for an engine and disposed at a fixed location relative a wing member; a proprotor housing coupled to the nacelle, the proprotor housing configured to selectively rotate between a horizontal orientation and a non-horizontal orientation; a door coupled to the proprotor housing and the nacelle, the door including a flexure portion that bends and permits the door to fold onto itself in response to rotation of the proprotor housing in a non-horizontal orientation, the door configured to dampen vibrations from the proprotor housing; wherein the flexure portion extends when the proprotor housing is in a horizontal orientation and folds onto itself when the proprotor housing is in a non-horizontal orientation; characterized in that the flexure portion is an e-textile configured to permit bending when the proprotor housing is in a non-horizontal orientation and shrinkage to keep the material taut. a nacelle configured as a housing for an engine and disposed at a fixed location relative a wing member; a proprotor housing coupled to the nacelle, the proprotor housing configured to selectively rotate between a horizontal orientation and a non-horizontal orientation; a door coupled to the proprotor housing and the nacelle, the door including a flexure portion that bends and permits the door to fold onto itself in response to rotation of the proprotor housing in a non-horizontal orientation, the door configured to dampen vibrations from the proprotor housing; wherein the flexure portion extends when the proprotor housing is in a horizontal orientation and folds onto itself when the proprotor housing is in a non-horizontal orientation;
A process for manufacturing a paper or cardboard sheet from a fibrous suspension, comprising the following steps: a) injecting a P3 polymer into a fibrous suspension, b) forming a paper or cardboard sheet, c) drying the paper or cardboard sheet, polymer P3 being prepared before step a) from a water-soluble polymer P1 of at least one nonionic monomer selected from acrylamide, methacrylamide, N,N-dimethylacrylamide, and acrylonitrile, polymer P1 being subjected to an Re1 reaction to give a polymer P2, which is then subjected to an Re2 reaction to give a P3 polymer, which is injected into the fibrous suspension within 24 hours from the start of the Re1 reaction, - wherein the Re1 reaction comprises preparing a P2 polymer comprising isocyanate functions by reaction for 10 seconds to 60 minutes between (i) an alkali hydroxide and/or an alkaline earth hydroxide, (ii) an alkali metal hypohalite and/or an alkaline earth metal hypohalite, and (iii) the P1 polymer, - wherein the Re2 reaction comprises preparing a P3 polymer by reaction between (iv) a micro-cellulose compound and (v) the P2 polymer comprising isocyanate functions. a) injecting a P3 polymer into a fibrous suspension, b) forming a paper or cardboard sheet, c) drying the paper or cardboard sheet, polymer P3 being prepared before step a) from a water-soluble polymer P1 of at least one nonionic monomer selected from acrylamide, methacrylamide, N,N-dimethylacrylamide, and acrylonitrile, polymer P1 being subjected to an Re1 reaction to give a polymer P2, which is then subjected to an Re2 reaction to give a P3 polymer, which is injected into the fibrous suspension within 24 hours from the start of the Re1 reaction, - wherein the Re1 reaction comprises preparing a P2 polymer comprising isocyanate functions by reaction for 10 seconds to 60 minutes between (i) an alkali hydroxide and/or an alkaline earth hydroxide, (ii) an alkali metal hypohalite and/or an alkaline earth metal hypohalite, and (iii) the P1 polymer, - wherein the Re2 reaction comprises preparing a P3 polymer by reaction between (iv) a micro-cellulose compound and (v) the P2 polymer comprising isocyanate functions. - wherein the Re1 reaction comprises preparing a P2 polymer comprising isocyanate functions by reaction for 10 seconds to 60 minutes between (i) an alkali hydroxide and/or an alkaline earth hydroxide, (ii) an alkali metal hypohalite and/or an alkaline earth metal hypohalite, and (iii) the P1 polymer, - wherein the Re2 reaction comprises preparing a P3 polymer by reaction between (iv) a micro-cellulose compound and (v) the P2 polymer comprising isocyanate functions.
Secondary titanium alloy which contains aluminum, vanadium, molybdenum, chromium, iron, nickel, zirconium, nitrogen, oxygen, carbon and titanium and is used to make sheet material, structural parts and structural armor is also notable for additions of silicon. Weight percentages of its components are as follows: aluminum 0.01-6.5 vanadium 0.01-5.5 molybdenum 0.05-2.0 chromium 0.01-1.5 iron 0.1-2.5 nickel 0.01-0.5 zirconium 0.01-0.5 nitrogen ≤0.07 oxygen ≤0.3 carbon ≤0.1 silicon 0.01-0.25 titanium remainder, at the same time values of molybdenum MO equiv str and aluminium AI equiv str strength equivalents calculated from the formulas: AI equiv str = Al + Zr / 3 + 20 ⋅ O + 33 ⋅ N + 12 ⋅ C + 3.3 ⋅ Si, weight %, MO equiv str = Mo + V / 1.7 + Ni + Cr / 0.8 + Fe / 0.7, weight %, equal to: - Mo equiv str = 2.1 − 5.6, AI equiv str = 6.1 − 8.83 for sheet material - MO equiv str = 2.1 − 5.6, AI equiv str = 8.84 − 12.1 for structural parts. - MO equiv str = 5.7 − 11, AI equiv str = 6.1 − 12.1 for structural armor. - Mo equiv str = 2.1 − 5.6, AI equiv str = 6.1 − 8.83 for sheet material - MO equiv str = 2.1 − 5.6, AI equiv str = 8.84 − 12.1 for structural parts. - MO equiv str = 5.7 − 11, AI equiv str = 6.1 − 12.1 for structural armor.