mhurhangee/ep-ind-claims huggingface dataset:
A dressing assembly for use with a reduced pressure treatment system, the dressing assembly comprising: a shaped dressing bolster having an oblique extremity and having a first surface and a second, inward-facing surface; an over-drape disposed over the first surface of the shaped dressing bolster and coupled to a least a portion of the first surface of the shaped dressing bolster and wherein the over-drape extends beyond the shaped dressing bolster to form a drape extension, the drape extension having a first side and a second, inward-facing side; and an adhesive perimeter strip coupled to the second side of the drape extension and operable to provide a seal between a patient and the over drape, wherein the shaped dressing bolster comprises a medical bolster material and wherein the medical bolster material is an anisotropic material; and wherein the shaped dressing bolster material comprises a first axis, a second axis, and a third axis, and wherein in response to the development of a net circumferential force along the first axis, the shaped dressing bolster material is formed to develop greater movement along the third axis than along the first axis. a shaped dressing bolster having an oblique extremity and having a first surface and a second, inward-facing surface; an over-drape disposed over the first surface of the shaped dressing bolster and coupled to a least a portion of the first surface of the shaped dressing bolster and wherein the over-drape extends beyond the shaped dressing bolster to form a drape extension, the drape extension having a first side and a second, inward-facing side; and an adhesive perimeter strip coupled to the second side of the drape extension and operable to provide a seal between a patient and the over drape, wherein the shaped dressing bolster comprises a medical bolster material and wherein the medical bolster material is an anisotropic material; and wherein the shaped dressing bolster material comprises a first axis, a second axis, and a third axis, and wherein in response to the development of a net circumferential force along the first axis, the shaped dressing bolster material is formed to develop greater movement along the third axis than along the first axis.
A compound defined by formula: and salts thereof wherein: R 1 and R 2 are different and each of R 1 and R 2 is an alkyl group or a cycloalkyl group made up of hydrogen and carbon atoms only, and each having a total of from six to ten carbon atoms, and is independently selected from: (a) -CH 2 -CHR 3 R 4, where R 3 is methyl or ethyl; and R 4 is an alkyl; and (b) -CR 3 (CH 2 R 5)R 6, where R 3 is methyl or ethyl; and R 5 is H or an alkyl, and R 6 is an alkyl; or R 5, R 6 and the ethylene group to which they are bonded form a five or six-membered cycloalkyl ring; and each of X and Y is independently O or S. R 1 and R 2 are different and each of R 1 and R 2 is an alkyl group or a cycloalkyl group made up of hydrogen and carbon atoms only, and each having a total of from six to ten carbon atoms, and is independently selected from: (a) -CH 2 -CHR 3 R 4, where R 3 is methyl or ethyl; and R 4 is an alkyl; and (b) -CR 3 (CH 2 R 5)R 6, where R 3 is methyl or ethyl; and R 5 is H or an alkyl, and R 6 is an alkyl; or R 5, R 6 and the ethylene group to which they are bonded form a five or six-membered cycloalkyl ring; and each of X and Y is independently O or S. (a) -CH 2 -CHR 3 R 4, where R 3 is methyl or ethyl; and R 4 is an alkyl; and (b) -CR 3 (CH 2 R 5)R 6, where R 3 is methyl or ethyl; and R 5 is H or an alkyl, and R 6 is an alkyl; or R 5, R 6 and the ethylene group to which they are bonded form a five or six-membered cycloalkyl ring; R 3 is methyl or ethyl; and R 5 is H or an alkyl, and R 6 is an alkyl; or R 5, R 6 and the ethylene group to which they are bonded form a five or six-membered cycloalkyl ring;
An articulating drill guide (100, 200) comprising: a frame having an arcuate configuration, a first end and a second end (32, 34); a first guide member secured to the first end; a second guide member secured to the second end; and an articulating mechanism in communication with the first guide member; characterized in that the first guide member comprises a cylindrical shaft terminating in two articulating segments (11b, 13), a most distal articulating segment being in the form of a hook or probe that terminates in an elongated rounded tip, the articulating segment being configured to articulate from a first, non-articulated position to a second, articulated position to approximate anatomical curvature of a bone; the articulating mechanism being configured to articulate at least one of the two articulating segments, wherein at least one of the two articulating segments (11b, 13) of the first guide member articulates from the first, non-articulated position to the second, articulated position to allow the hook or probe to follow the contour of a targeted bone surface of the bone. a frame having an arcuate configuration, a first end and a second end (32, 34); a first guide member secured to the first end; a second guide member secured to the second end; and an articulating mechanism in communication with the first guide member; the first guide member comprises a cylindrical shaft terminating in two articulating segments (11b, 13), a most distal articulating segment being in the form of a hook or probe that terminates in an elongated rounded tip, the articulating segment being configured to articulate from a first, non-articulated position to a second, articulated position to approximate anatomical curvature of a bone; the articulating mechanism being configured to articulate at least one of the two articulating segments, wherein at least one of the two articulating segments (11b, 13) of the first guide member articulates from the first, non-articulated position to the second, articulated position to allow the hook or probe to follow the contour of a targeted bone surface of the bone.
Brazing method for assembling two elements (2, 3), said method comprising the steps of: - selecting two brazing materials that can generate, when they are heated and melted, an intermetallic compound having a melting temperature which is higher than the nominal operating temperature of the two elements and which is higher than a melting temperature of each of the selected brazing materials taken individually, - positioning the two selected brazing materials between the two elements (2, 3), the method being characterized in that: - heating the two selected brazing materials in order to reach the melting temperature of each of the selected brazing materials and melting them by mixing them in the liquid-liquid state so as to achieve the precipitation of an intermetallic compound having a melting temperature which is higher than the nominal operating temperature of the two elements and which is higher than the melting temperature of each of the selected brazing materials taken individually. - selecting two brazing materials that can generate, when they are heated and melted, an intermetallic compound having a melting temperature which is higher than the nominal operating temperature of the two elements and which is higher than a melting temperature of each of the selected brazing materials taken individually, - positioning the two selected brazing materials between the two elements (2, 3), the method being characterized in that: - heating the two selected brazing materials in order to reach the melting temperature of each of the selected brazing materials and melting them by mixing them in the liquid-liquid state so as to achieve the precipitation of an intermetallic compound having a melting temperature which is higher than the nominal operating temperature of the two elements and which is higher than the melting temperature of each of the selected brazing materials taken individually.
Propulsion unit for an aircraft, including an engine and a propeller shaft driven in rotation by the engine, said propeller shaft passing through a sealed case containing a lubricating fluid, the propulsion unit further including a propeller with airfoils which is coupled to said propeller shaft and comprising electrical members (12A -12D) that are electrical power consumers, the sealing between said sealed case and said propeller shaft being ensured by a dynamic seal housed between a rotating dynamic seal support angularly secured to said propeller shaft and a dynamic seal support flange secured to an end portion of said case facing said propeller, said rotating dynamic seal support being secured to said propeller shaft while being axially held in abutment against a bearing for supporting said propeller shaft, in order to deliver electrical power to said electrical members, the propulsion unit comprising a rotating transformer rotated by said propeller shaft and including on the one hand a stator, a casing of which (34A, 34B) is secured to said dynamic seal support flange and on the other hand a rotor, a casing of which (40A; 32A, 32B) is secured to said propeller shaft.
A method for producing a crosslinked product, comprising the steps of: melt molding an ethylene copolymer or a resin composition containing the ethylene copolymer; and carrying out crosslinking; wherein the ethylene copolymer contains a constitutional unit derived from ethylene and a constitutional unit derived from an α-olefin having from 3 to 20 carbon atoms, and satisfies all of the following requirements,, and: a vinyl group content per 1,000 carbon atoms as measured by 1 H-NMR is 0.06 or more and one or less; a ratio MFR 10 /MFR 2.16 is 8.6 or more and 50 or less; a density d is 850 kg/m 3 or more and 920 kg/m 3 or less; and MFR 2.16 is within the range of from 2.0 to 200 g/10 min (wherein, MFR 10 represents a melt flow rate (g/10 min) as measured in accordance with ASTM D1238 at a load of 10 kg and at a temperature of 190°C; and MFR 2.16 represents a melt flow rate (g/10 min) as measured in accordance with ASTM D1238 at a load of 2.16 kg and at a temperature of 190°C). a vinyl group content per 1,000 carbon atoms as measured by 1 H-NMR is 0.06 or more and one or less; a ratio MFR 10 /MFR 2.16 is 8.6 or more and 50 or less; a density d is 850 kg/m 3 or more and 920 kg/m 3 or less; and MFR 2.16 is within the range of from 2.0 to 200 g/10 min (wherein, MFR 10 represents a melt flow rate (g/10 min) as measured in accordance with ASTM D1238 at a load of 10 kg and at a temperature of 190°C; and MFR 2.16 represents a melt flow rate (g/10 min) as measured in accordance with ASTM D1238 at a load of 2.16 kg and at a temperature of 190°C).
A friction welding method where surfaces to be welded of two metal members (2, 4) to be welded are made slide in contact with each other, wherein; at least one of the metal members to be welded is a ferrous material, and a friction heat generated by the sliding of the two metal members to be welded, and a processing heat generated by plastic deformation of the metal members to be welded are utilized together, characterized in that a maximum temperature reached during welding is equal to or less than the A 3 point or equal to or less than the A cm point of the ferrous material. at least one of the metal members to be welded is a ferrous material, and a friction heat generated by the sliding of the two metal members to be welded, and a processing heat generated by plastic deformation of the metal members to be welded are utilized together, characterized in that a maximum temperature reached during welding is equal to or less than the A 3 point or equal to or less than the A cm point of the ferrous material.
A soft suture anchor wherein the anchor comprises fibers of a blend comprising polyhydroxyalkanoate polymer and bioceramic wherein the suture is permanent, resorbable, a hybrid of permanent and resorbable materials, monofilament, braided, single or multiple threads.
A method of a base station for assigning a physical downlink control channel, PDCCH, the method comprising: determining a location for control channel elements, CCEs, corresponding to a PDCCH candidate of a search space for a serving cell corresponding to a carrier indicator, n CI; and transmitting, to a user equipment, UE, control information based on the location for the CCEs, wherein the location for the CCEs corresponding to the PDCCH candidate, m nCI, of the search space for the serving cell is determined based on L ⋅ Y p, k + ⌊ m n CI ⋅ N CCE, p, k L ⋅ max n CI M p, n CI L ⌋ + n CI mod ⌊ N CCE, p, k L ⌋ + i, where, N CCE,p,k is a number of CCEs, Y p,k is an offset calculated based on a resource set p and transmission time interval, k, i=0,..., L-1, m=0,..., M p,nCI -1, and M p,nCI is a number of candidates for an aggregation level L, n CI is the carrier indicator indicating a carrier for cross carrier scheduling, and max nCI (M p,nCI) is the maximum of M p,nCI across the values of n CI, and wherein each of the candidates for the aggregation level L includes aggregation of L consecutive CCEs. determining a location for control channel elements, CCEs, corresponding to a PDCCH candidate of a search space for a serving cell corresponding to a carrier indicator, n CI; and transmitting, to a user equipment, UE, control information based on the location for the CCEs, wherein the location for the CCEs corresponding to the PDCCH candidate, m nCI, of the search space for the serving cell is determined based on L ⋅ Y p, k + ⌊ m n CI ⋅ N CCE, p, k L ⋅ max n CI M p, n CI L ⌋ + n CI mod ⌊ N CCE, p, k L ⌋ + i, where, N CCE,p,k is a number of CCEs, Y p,k is an offset calculated based on a resource set p and transmission time interval, k, i=0,..., L-1, m=0,..., M p,nCI -1, and M p,nCI is a number of candidates for an aggregation level L, n CI is the carrier indicator indicating a carrier for cross carrier scheduling, and max nCI (M p,nCI) is the maximum of M p,nCI across the values of n CI, and wherein each of the candidates for the aggregation level L includes aggregation of L consecutive CCEs.
A method comprising: performing a first encoding of a first message using a non-recursive convolutional encoder to produce a first codeword where the first message is related to an original message, and has the same length as the original message, (1 -1); generating a second message by at least algebraically modifying a third message, the second message having the same length as the original message, and the third message is related to the original message and has the same length as the original message (1 - 2), wherein the third message is algebraically modified by performing at least one of addition, subtraction, multiplication, division, convolution and deconvolution upon the third message; performing a second encoding of the second message using a non-recursive convolutional encoder to produce a second codeword, (1 - 3); wherein generating the second message and performing the second encoding of the second message to produce the second codeword are performed such that the second codeword is the same as what would have been obtained by encoding the third message with a recursive systematic code; and transmitting at least part of the first codeword and transmitting at least part of the second codeword (1 - 4). performing a first encoding of a first message using a non-recursive convolutional encoder to produce a first codeword where the first message is related to an original message, and has the same length as the original message, (1 -1); generating a second message by at least algebraically modifying a third message, the second message having the same length as the original message, and the third message is related to the original message and has the same length as the original message (1 - 2), wherein the third message is algebraically modified by performing at least one of addition, subtraction, multiplication, division, convolution and deconvolution upon the third message; performing a second encoding of the second message using a non-recursive convolutional encoder to produce a second codeword, (1 - 3); wherein generating the second message and performing the second encoding of the second message to produce the second codeword are performed such that the second codeword is the same as what would have been obtained by encoding the third message with a recursive systematic code; and transmitting at least part of the first codeword and transmitting at least part of the second codeword (1 - 4).
A surgical tool comprising: - a stylet; - a tip of the surgical tool at a distal end of the stylet; and - a handle at a proximal end of the stylet, the handle comprising means for actuating the tip of the tool, said handle being formed by a ball joint; wherein the ball joint comprises: - a base hemisphere coupled such that it is solidly connected to an outer sheath of the stylet; - a central hemisphere solidly connected to the base hemisphere and located at a centre thereof; - a gripping clamp with a spherical inner surface concentric with the base hemisphere; - a rotation hemisphere solidly connected to the gripping clamp and located at a centre of the inner surface thereof, forming a joint of the ball-socket type together with the central hemisphere; and - locking means which allow a locking position to be adopted, in which relative movement between the gripping clamp and the base hemisphere is prevented, and an unlocking position, in which relative movement between the gripping clamp and the base hemisphere is permitted, wherein said locking means are formed by the gripping clamp itself, a locking area of which is formed by the spherical inner surface thereof, which can move until making contact with the base hemisphere by means of pressure on sides of the gripping clamp. - a stylet; - a tip of the surgical tool at a distal end of the stylet; and - a handle at a proximal end of the stylet, the handle comprising means for actuating the tip of the tool, said handle being formed by a ball joint; - a base hemisphere coupled such that it is solidly connected to an outer sheath of the stylet; - a central hemisphere solidly connected to the base hemisphere and located at a centre thereof; - a gripping clamp with a spherical inner surface concentric with the base hemisphere; - a rotation hemisphere solidly connected to the gripping clamp and located at a centre of the inner surface thereof, forming a joint of the ball-socket type together with the central hemisphere; and - locking means which allow a locking position to be adopted, in which relative movement between the gripping clamp and the base hemisphere is prevented, and an unlocking position, in which relative movement between the gripping clamp and the base hemisphere is permitted, wherein said locking means are formed by the gripping clamp itself, a locking area of which is formed by the spherical inner surface thereof, which can move until making contact with the base hemisphere by means of pressure on sides of the gripping clamp.
A security-element transfer material having - a security-element layer composite which has a multiplicity of layers including at least one feature layer (2; 4), a permanent carrier substrate and a viewing layer, wherein the viewing layer is the layer facing a viewer after the transfer of a security element to an object of value, and wherein the viewing layer can be identical with a feature layer or the permanent carrier substrate, and - a temporary carrier which is detachably connected to the viewing layer of the security-element layer composite, wherein - the temporary carrier has a carrier layer composite which consists of a first and a second temporary carrier substrate which are indissolubly bonded by means of a bonding-agent layer, and outline shapes of the security elements are precut in the security-element layer composite, wherein the cuts (20, 20') partly or completely sever the first temporary carrier substrate, where applicable, and partly or completely sever the bonding-agent layer, where applicable, but do not penetrate into the second temporary carrier substrate, so that the temporary carrier can be detached as a complete carrier layer composite. - a security-element layer composite which has a multiplicity of layers including at least one feature layer (2; 4), a permanent carrier substrate and a viewing layer, wherein the viewing layer is the layer facing a viewer after the transfer of a security element to an object of value, and wherein the viewing layer can be identical with a feature layer or the permanent carrier substrate, and - a temporary carrier which is detachably connected to the viewing layer of the security-element layer composite, wherein - the temporary carrier has a carrier layer composite which consists of a first and a second temporary carrier substrate which are indissolubly bonded by means of a bonding-agent layer, and outline shapes of the security elements are precut in the security-element layer composite, wherein the cuts (20, 20') partly or completely sever the first temporary carrier substrate, where applicable, and partly or completely sever the bonding-agent layer, where applicable, but do not penetrate into the second temporary carrier substrate, so that the temporary carrier can be detached as a complete carrier layer composite.
A reactive mesogen represented by the following Formula 1: where a1, b1, and b2 are each independently an integer of 0 to 6, a2 and a3 are each independently 0 or 1, L 1 and L 2 are each independently a direct linkage, -O-, -S-, -CO-, -COO-,-OCOO-, -O(CH 2) k1 -, -S(CH 2) k1 -, -O(CF 2) k1 -, -S(CF 2) k1 -, -(CH 2) k1 -, -CF 2 CH 2 -,-(CF 2) k1 -, -CH=CH-, -CF=CF-, -C≡C-, -CH=CH-COO-, or -(CH 2) k1 -COO-(CH 2) k2 -O-, k1 and k2 are each independently an integer of 0 to 4, Z 1 and Z 2 are each independently a direct linkage, -O-, -S-, -CO-, -COO-,-OCOO-, -O(CH 2) m1 -, -S(CH 2) m1 -, -O(CF 2) m1 -, -S(CF 2) m1 -, -(CH 2) m1 -, -CF 2 CH 2 -,-(CF 2) m1 -, -CH=CH-, -CF=CF-, -C≡C-, -CH=CH-COO-, -(CH 2) m1 -COO-, -(CH 2) m1 -COO-(CH 2) m2 -O-, -CH-(S p -Pa)-, -CH 2 CH-(S p -Pa)-, or -(CH-(S p -Pa)-CH-(S p -Pa))-, m1 and m2 are each independently an integer of 0 to 4, S p is a direct linkage, or a spacer group, Pa is a polymerizable group, B is an unsubstituted heterocycle, a substituted or unsubstituted crown ether group, or n1 and n2 are each independently an integer of 1 to 12, T 1 and T 2 are each independently -OH, -CH 3, -CF 3, -CHF 2, -CH 2 F, -CH 2 Br, -CHBr 2, -CHCl 2, or -CH 2 Cl, at least one of T 1 and T 2 is -OH; and characterized in that A 1, A 2, and A 3 are each independently selected from the following A-23 to A-27: where a1, b1, and b2 are each independently an integer of 0 to 6, a2 and a3 are each independently 0 or 1, L 1 and L 2 are each independently a direct linkage, -O-, -S-, -CO-, -COO-,-OCOO-, -O(CH 2) k1 -, -S(CH 2) k1 -, -O(CF 2) k1 -, -S(CF 2) k1 -, -(CH 2) k1 -, -CF 2 CH 2 -,-(CF 2) k1 -, -CH=CH-, -CF=CF-, -C≡C-, -CH=CH-COO-, or -(CH 2) k1 -COO-(CH 2) k2 -O-, k1 and k2 are each independently an integer of 0 to 4, Z 1 and Z 2 are each independently a direct linkage, -O-, -S-, -CO-, -COO-,-OCOO-, -O(CH 2) m1 -, -S(CH 2) m1 -, -O(CF 2) m1 -, -S(CF 2) m1 -, -(CH 2) m1 -, -CF 2 CH 2 -,-(CF 2) m1 -, -CH=CH-, -CF=CF-, -C≡C-, -CH=CH-COO-, -(CH 2) m1 -COO-, -(CH 2) m1 -COO-(CH 2) m2 -O-, -CH-(S p -Pa)-, -CH 2 CH-(S p -Pa)-, or -(CH-(S p -Pa)-CH-(S p -Pa))-, m1 and m2 are each independently an integer of 0 to 4, S p is a direct linkage, or a spacer group, Pa is a polymerizable group, B is an unsubstituted heterocycle, a substituted or unsubstituted crown ether group, or n1 and n2 are each independently an integer of 1 to 12, T 1 and T 2 are each independently -OH, -CH 3, -CF 3, -CHF 2, -CH 2 F, -CH 2 Br, -CHBr 2, -CHCl 2, or -CH 2 Cl, at least one of T 1 and T 2 is -OH; and characterized in that A 1, A 2, and A 3 are each independently selected from the following A-23 to A-27: