mhurhangee/ep-ind-claims huggingface dataset:
A prosthetic mitral valve system comprising: an anchor assembly comprising an expandable anchor frame, the anchor assembly coupleable with a native mitral valve having an anterior leaflet and a posterior leaflet that cycle between an open valve orientation and a closed valve orientation in which free edges of the anterior and posterior leaflets oppose each other to define a coaptation line, wherein, while the anchor assembly is coupled with the native mitral valve, the anterior and posterior leaflets continue to cycle; and a valve assembly comprising an expandable valve frame and an occluder attached to the expandable valve frame, the valve assembly selectively coupleable with the anchor assembly; characterized by a prosthetic element (255, 257) attached to the expandable anchor frame; wherein, while the anchor assembly is coupled with the native mitral valve, at least a portion of the prosthetic element (255, 257) is positioned along the coaptation line between the free edges of the anterior and posterior leaflets (20, 22) while the anterior and posterior leaflets (20, 22) are in the closed valve orientation; and the prosthetic element (255, 257) being configured to work in conjunction with the anterior and posterior leaflets (20, 22) to enhance the sealing function of the native mitral valve. an anchor assembly comprising an expandable anchor frame, the anchor assembly coupleable with a native mitral valve having an anterior leaflet and a posterior leaflet that cycle between an open valve orientation and a closed valve orientation in which free edges of the anterior and posterior leaflets oppose each other to define a coaptation line, wherein, while the anchor assembly is coupled with the native mitral valve, the anterior and posterior leaflets continue to cycle; and a valve assembly comprising an expandable valve frame and an occluder attached to the expandable valve frame, the valve assembly selectively coupleable with the anchor assembly; characterized by a prosthetic element (255, 257) attached to the expandable anchor frame; wherein, while the anchor assembly is coupled with the native mitral valve, at least a portion of the prosthetic element (255, 257) is positioned along the coaptation line between the free edges of the anterior and posterior leaflets (20, 22) while the anterior and posterior leaflets (20, 22) are in the closed valve orientation; and the prosthetic element (255, 257) being configured to work in conjunction with the anterior and posterior leaflets (20, 22) to enhance the sealing function of the native mitral valve.
A dynamic photodiode comprising a substrate; a first doped region formed in the substrate, at a top surface of the substrate, the first doped region having an associated first contact configured to receive a first voltage; a second doped region formed in the substrate, at the top surface of the substrate, the second doped region having an associated second contact configured to receive a second voltage; a first resettable doped region formed in the substrate, at the top surface of the substrate, between the first doped region and the second doped region, the first resettable doped region having an associated first resettable contact configured to receive a reset voltage or be set as an open circuit, the first resettable region providing a potential barrier in the photodiode without the use of a gate; and a first light absorbing region formed in the substrate, at the top surface of the substrate, between the first doped region and the first resettable doped region, the first light absorbing region configured to generate first electron-hole pairs in the substrate, wherein first electron-hole pairs are generated in the substrate when the first resettable contact is set as an open circuit, and the first electron-hole pairs are removed from the substrate when the first resettable contact receives the reset voltage, wherein the reset voltage is a positive voltage value, and wherein the first doped region is an n+ doped region, the second doped region is a p+ doped region, and the first resettable region is an n+ doped region. a substrate; a first doped region formed in the substrate, at a top surface of the substrate, the first doped region having an associated first contact configured to receive a first voltage; a second doped region formed in the substrate, at the top surface of the substrate, the second doped region having an associated second contact configured to receive a second voltage; a first resettable doped region formed in the substrate, at the top surface of the substrate, between the first doped region and the second doped region, the first resettable doped region having an associated first resettable contact configured to receive a reset voltage or be set as an open circuit, the first resettable region providing a potential barrier in the photodiode without the use of a gate; and a first light absorbing region formed in the substrate, at the top surface of the substrate, between the first doped region and the first resettable doped region, the first light absorbing region configured to generate first electron-hole pairs in the substrate, wherein first electron-hole pairs are generated in the substrate when the first resettable contact is set as an open circuit, and the first electron-hole pairs are removed from the substrate when the first resettable contact receives the reset voltage, wherein the reset voltage is a positive voltage value, and wherein the first doped region is an n+ doped region, the second doped region is a p+ doped region, and the first resettable region is an n+ doped region.
An insulation material comprising a resin composition containing: an ester (i) having one or more constitutional units represented by the following formula: wherein R 1 is an isopropyl group and R 2 represents an alkyl group having from 1 to 4 carbon atoms; and a resin (ii); wherein the ester (i) is selected from a phthalate ester, an adipate ester, an azelate ester, a sebacate ester and a 1,2-cyclohexanedicarboxylate ester; and wherein the ester (i) is an ester that is obtained through condensation of an alcohol represented by the following formula: and an acid component. an ester (i) having one or more constitutional units represented by the following formula: wherein R 1 is an isopropyl group and R 2 represents an alkyl group having from 1 to 4 carbon atoms; and a resin (ii); wherein the ester (i) is selected from a phthalate ester, an adipate ester, an azelate ester, a sebacate ester and a 1,2-cyclohexanedicarboxylate ester; and wherein the ester (i) is an ester that is obtained through condensation of an alcohol represented by the following formula: and an acid component. wherein the ester (i) is selected from a phthalate ester, an adipate ester, an azelate ester, a sebacate ester and a 1,2-cyclohexanedicarboxylate ester; and wherein the ester (i) is an ester that is obtained through condensation of an alcohol represented by the following formula: and an acid component.
A computer implemented method to output a tractography based on a determined confidence in a displayed image data of an anatomy, comprising: obtaining (step 122) gradient image data of the anatomy including data regarding diffusion of a matter in an anatomical structure; making a first estimate of a tract in the anatomical structure based upon a first criterion applied to the obtained image data (step 130); perturbing the first criterion to obtain a second criterion that is different from the first criterion (step 132); making a second estimate of a tract in the anatomical structure based upon the second criterion applied to the obtained image data; comparing the first and second estimates of a tract in the anatomical structure(step 134); determining a confidence factor based on the comparison (step 134); characterized by automatically outputting (step 136) a tractography of the anatomical structure, based on the comparison, when the confidence factor is within a confidence threshold, or determining (steps 135, 156) that a further perturbation is necessary if the confidence factor is outside the confidence threshold. obtaining (step 122) gradient image data of the anatomy including data regarding diffusion of a matter in an anatomical structure; making a first estimate of a tract in the anatomical structure based upon a first criterion applied to the obtained image data (step 130); perturbing the first criterion to obtain a second criterion that is different from the first criterion (step 132); making a second estimate of a tract in the anatomical structure based upon the second criterion applied to the obtained image data; comparing the first and second estimates of a tract in the anatomical structure(step 134); determining a confidence factor based on the comparison (step 134); characterized by automatically outputting (step 136) a tractography of the anatomical structure, based on the comparison, when the confidence factor is within a confidence threshold, or determining (steps 135, 156) that a further perturbation is necessary if the confidence factor is outside the confidence threshold.
Active substance combinations of N-(4-amino-2-methylquinolin-6-yl)-2-((4-ethylphenoxy)methyl) and one or more cosmetically or dermatologically acceptable fragrances.
A tire (10, 110, 210, 310) comprising: a tread portion including a tread surface and a groove (18, 118, 218, 318) that partitions the tread surface; and a plurality of protrusions (34, 36, 134, 136, 234, 244, 254, 334), formed in an asterisk shape, that protrude from a bottom surface of the groove at a height of from 0.1 mm to 1.0 mm and are arranged at an interval of from more than 0.1 mm to 1.0 mm, the interval being defined by a distance between a center of one asterisk protrusion and a center of another, adjacent, asterisk protrusion, wherein a ratio of a height of the protrusions to a depth of the groove (protrusion height/groove depth) is from 0.02 to 0.2, wherein the groove includes a pair of side surfaces, the bottom surface, and a pair of curved surfaces connecting the side surfaces and the bottom surface, wherein the tire further includes a plurality of other protrusions (44, 46, 54, 56, 144, 146, 154, 156, 344, 354) that protrude from the side surfaces and the curved surfaces at a height of from 0.1 mm to 1.0 mm and are arranged at an interval of from more than 0.1 mm to 1.0 mm, and wherein the height of the protrusions formed on the bottom surface, the height of the other protrusions formed on the curved surfaces, and the height of the other protrusions formed on the side surfaces decrease in this order. a tread portion including a tread surface and a groove (18, 118, 218, 318) that partitions the tread surface; and a plurality of protrusions (34, 36, 134, 136, 234, 244, 254, 334), formed in an asterisk shape, that protrude from a bottom surface of the groove at a height of from 0.1 mm to 1.0 mm and are arranged at an interval of from more than 0.1 mm to 1.0 mm, the interval being defined by a distance between a center of one asterisk protrusion and a center of another, adjacent, asterisk protrusion, wherein a ratio of a height of the protrusions to a depth of the groove (protrusion height/groove depth) is from 0.02 to 0.2, wherein the groove includes a pair of side surfaces, the bottom surface, and a pair of curved surfaces connecting the side surfaces and the bottom surface, wherein the tire further includes a plurality of other protrusions (44, 46, 54, 56, 144, 146, 154, 156, 344, 354) that protrude from the side surfaces and the curved surfaces at a height of from 0.1 mm to 1.0 mm and are arranged at an interval of from more than 0.1 mm to 1.0 mm, and wherein the height of the protrusions formed on the bottom surface, the height of the other protrusions formed on the curved surfaces, and the height of the other protrusions formed on the side surfaces decrease in this order.
Composition comprising A) 50 to 70 parts by weight of at least one aromatic polycarbonate, B) 16 to 30 parts by weight of at least one polyalkylene terephthalate, C) 4 to 30 parts by weight of at least one mineral filler based on talc, D) 0.1 - 8.0 parts by weight of additives, with component D comprising at least one mould release agent and at least one stabilizer and with the sum of the parts by weight of components A-D making 100. A) 50 to 70 parts by weight of at least one aromatic polycarbonate, B) 16 to 30 parts by weight of at least one polyalkylene terephthalate, C) 4 to 30 parts by weight of at least one mineral filler based on talc, D) 0.1 - 8.0 parts by weight of additives,
A glass or glass ceramic substrate provided with a coating, having a thermal expansion coefficient α at 20 °C to 300 °C of up to 5.5 * 10 -6 /K, wherein the coating is applied by means of a glass flux material, which comprises at least one pigment and one glass component, wherein the glass component contains: SiO 2 58-65 mol%, Al 2 O 3 2.5-6 mol%, Bi 2 O 3 0.5-2 mol%, B 2 O 3 18-25 mol%, with at least 2.5 mol% of at least one oxide from the group Li 2 O, Na 2 O and K 2 O, wherein the ratio of alkali metal oxides to aluminium oxide ∑ R 2 O/Al 2 O 3 is less than 6, wherein the coating is opaque, and wherein the glass component has a softening temperature Ew of less than 680 °C.
A data transmission method, comprising: obtaining a service data packet that needs to be sent to a peer device and determining a priority corresponding to the service data packet; if the priority is lower than a preset level, writing the service data packet to a packet buffer; when the data stored in the packet buffer meets a transmission condition, encapsulating the data stored in the packet buffer, to generate a to-be-sent packet; and sending the to-be-sent packet to the peer device; characterized in that if the priority is higher than or equal to the preset level, detecting whether there is data stored in the packet buffer; if data has been stored in the packet buffer, writing the service data packet whose priority is higher than or equal to the preset level to the packet buffer, and immediately encapsulating data stored in the packet buffer and the service data packet whose priority is higher than or equal to the preset level to the packet buffer, to generate a to-be-sent packet; and sending the to-be-sent packet to the peer device. obtaining a service data packet that needs to be sent to a peer device and determining a priority corresponding to the service data packet; if the priority is lower than a preset level, writing the service data packet to a packet buffer; when the data stored in the packet buffer meets a transmission condition, encapsulating the data stored in the packet buffer, to generate a to-be-sent packet; and sending the to-be-sent packet to the peer device; characterized in that if the priority is higher than or equal to the preset level, detecting whether there is data stored in the packet buffer; if data has been stored in the packet buffer, writing the service data packet whose priority is higher than or equal to the preset level to the packet buffer, and immediately encapsulating data stored in the packet buffer and the service data packet whose priority is higher than or equal to the preset level to the packet buffer, to generate a to-be-sent packet; and sending the to-be-sent packet to the peer device.
An implant system comprising an elongated non-elastic suture sized (110, 210) and configured for surgical implantation in a desired orientation in a tissue region in an airway, an array of projections (12, 112) extending from the elongated non-elastic suture (110, 210) sized and configured to penetrate into and engage tissue and resist a reorientation of the elongated non-elastic suture (110, 210) within the tissue region out of the desired orientation, and an adjustment means for adjustment of a tension in the suture (110, 210), characterized in that the adjustment means comprises a peg and a base plate, wherein the base plate contains a hole and is configured for attachment to a hard palate, wherein the peg is configured for the suture (110, 210) being threaded through and tied to the peg, and wherein the peg is fitted for the hole in the base plate, wherein the adjustment means is further configured for adjusting a length of the suture (110, 210) by twisting the peg to wrap an end of the suture (110, 210) around it and inserting and securing the peg into the hole of the base plate.
A method of packaging a food product using a polymer film, wherein said polymer comprises a macromolecularly self assembling polymeric material, said method comprising the steps of a) rendering said polymeric material into a polymer film; and b) packaging a food product in an atmosphere with said polymer film, wherein said film regulates the atmosphere in which the food product is packaged; and wherein the polymeric material is selected from the group consisting of a polyester-amide, a polyester-urethane, a polyester-urea, or a mixture thereof. a) rendering said polymeric material into a polymer film; and b) packaging a food product in an atmosphere with said polymer film, wherein said film regulates the atmosphere in which the food product is packaged; and wherein the polymeric material is selected from the group consisting of a polyester-amide, a polyester-urethane, a polyester-urea, or a mixture thereof.
A method of authenticating a device and a user to a service provider by binding the identity of the user and the device, the method comprising: - receiving a biometric measurement of the user, - generating a first key from the biometric measurement, - performing a physical measurement of a physically uncloneable function, PUF, of the device, - obtaining helper data for the device from a non-volatile memory of the device, where the helper data is for use in reconstructing a key from the physical measurement of the PUF, - computing a second key from the physical measurement of the PUF and the helper data, and - performing an operation using the first and second keys (40, 44) so as to bind the identity of the user and the device and authenticate the device and user to the service provider. - receiving a biometric measurement of the user, - generating a first key from the biometric measurement, - performing a physical measurement of a physically uncloneable function, PUF, of the device, - obtaining helper data for the device from a non-volatile memory of the device, where the helper data is for use in reconstructing a key from the physical measurement of the PUF, - computing a second key from the physical measurement of the PUF and the helper data, and - performing an operation using the first and second keys (40, 44) so as to bind the identity of the user and the device and authenticate the device and user to the service provider.
A compound or a pharmaceutically acceptable salt thereof, having a structure of: wherein the compound has an A and R' group as indicated in the table below: Serial# A R' 1 Cl 2 Cl 2E1 S- enantiomer Cl 2E2 R- enantiomer Cl 3 Cl 3E1 S- enantiomer Cl 4 Cl 5 Cl 6 Cl 7 Cl 8 Cl 9 Cl 10 Cl 10E1 S- enantiomer Cl 10E2 R- enantiomer Cl 11 Cl 11E1 S- enantiomer Cl 11E2 R- enantiomer Cl 12 Cl 13 Cl 14 Cl 15 Cl 16 Cl 17 Cl 18 Cl 19 Cl 20 Cl 21 Cl 22 Cl 23 Cl 24 Cl 25 Cl 26 Cl 27 F 28 Br 29 I 30 H 31 CH 3 32 OCH 3 33 (C 4 H 8)- 34 CF 3 35 Cl 36 Cl 37 Cl 38 Cl 39 Cl 40 Cl 41 Cl 42 Cl 43 Cl 44 Cl 45 Cl 46 Cl 47 Cl 48 Cl 49 Cl 50 Cl 51 Cl 52 Cl 53 Cl 54 Cl 55 Cl 56 Cl 57 Cl 58 Cl 59 Cl 60 Cl 61 Cl 62 Cl 63 Cl 64 Cl 65 Cl 66 Cl 67 Cl 68 Cl 69 Cl 70 I 71 C4H8 72 CF3 73 NH 2 NH Cl
Shear-off screw, for fastening a conductor of an electric cable in a connecting element, with a hollow-cylindrical threaded portion, in which the shearing off takes place when a predetermined torque is exceeded and a pressure piece arranged inside the threaded portion, wherein the pressure piece has an axial excess length with respect to the threaded portion, characterized in that the pressure piece is formed in at least two parts: with a plunger and a clamping element. wherein the pressure piece has an axial excess length with respect to the threaded portion, characterized in that the pressure piece is formed in at least two parts: with a plunger and a clamping element.
A functional fluid composition comprising an admixture of: (a) a major amount of an oil of lubricating viscosity; and (b) a friction-modifying amount of one or more oil-soluble alkyl toluene sulfonate salts represented by the formula: wherein R 1 is a metal sulfonate group and R 2 is an alkyl group derived from a single isomerized C 18-30 linear olefin or a mixture of isomerized C 18-30 linear olefins, wherein 5 wt.% to 80 wt.% of each of the isomerized linear olefins are branched, and further wherein the friction-modifying amount of one or more oil-soluble alkyl toluene sulfonate salts in the functional fluid is 0.15 wt. % to 4.0 wt. %.
A polymeric ammunition casing (2, 3) comprising: a cylindrical hollow body defining an internal cavity (22, 38) formed at least partially of a polymeric material, the cylindrical hollow body further defining a longitudinal axis and having a primer end and a projectile end, wherein the body is formed of a body portion proximal to the primer end and a neck portion (20, 30) proximal to the projectile end, and wherein the diameter of the cylindrical hollow body tapers such that the diameter of the body portion is larger than the diameter of the neck portion (20, 30); characterized in that only the longitudinal length of the neck portion (20, 30) of the polymeric ammunition casing (2, 3) is extended such that the overall length of the casing body is at least 0.0762 mm greater than a maximum longitudinal length standard for an ammunition casing of the same particular caliber as set by at least one ammunition standards organization selected from the group consisting of the Sporting Arms and Ammunition Manufacturers' Institute and the Commission Internationale Permanente pour l'epreuve des armes a feu portatives.
A method for controlling stability in an active noise cancellation system, the method comprising: receiving an error signal (e(n)) from a microphone; generating a speaker signal (S(n)) to be radiated from a speaker, the speaker signal (S(n)) including at least a music signal (M(n)); filtering the music signal (M(n)) using a secondary path filter to obtain an estimated music signal (M'(n)), the secondary path filter defined by a stored transfer characteristic (S'(z)) that estimates a secondary path (S(z)) between the speaker and the microphone; modifying the error signal (e(n)) using the estimated music signal (M'(n)) to obtain an adjusted error signal (e'(n)) by subtracting the estimated music signal (M'(n)) from the error signal (e(n)) to obtain the adjusted error signal (e'(n)) when the error signal (e(n)) contains music; and detecting an occurrence of noise boosting based on a comparison of the error signal (e(n)) to the adjusted error signal (e'(n)). receiving an error signal (e(n)) from a microphone; generating a speaker signal (S(n)) to be radiated from a speaker, the speaker signal (S(n)) including at least a music signal (M(n)); filtering the music signal (M(n)) using a secondary path filter to obtain an estimated music signal (M'(n)), the secondary path filter defined by a stored transfer characteristic (S'(z)) that estimates a secondary path (S(z)) between the speaker and the microphone; modifying the error signal (e(n)) using the estimated music signal (M'(n)) to obtain an adjusted error signal (e'(n)) by subtracting the estimated music signal (M'(n)) from the error signal (e(n)) to obtain the adjusted error signal (e'(n)) when the error signal (e(n)) contains music; and detecting an occurrence of noise boosting based on a comparison of the error signal (e(n)) to the adjusted error signal (e'(n)).