mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a User Equipment, UE, , comprising: receiving , from a base station , a group communication on a Physical Downlink Shared Channel, PDSCH, of a Long Term Evolution, LTE, network, wherein the group communication comprises a data packet addressed to a plurality of UEs in a group of UEs including the UE ; determining a first Hybrid Automatic Repeat reQuest, HARQ, information that corresponds to the group communication on the PDSCH; receiving , from the base station, a unicast communication on the PDSCH; determining a second HARQ information that corresponds to the unicast communication on the PDSCH; and transmitting the first HARQ information and the second HARQ information together on one Physical Uplink Control Channel, PUCCH, resource or one Physical Uplink Shared Channel, PUSCH, resource based on a Downlink, DL, grant that is associated with the unicast communication on the PDSCH. receiving , from a base station , a group communication on a Physical Downlink Shared Channel, PDSCH, of a Long Term Evolution, LTE, network, wherein the group communication comprises a data packet addressed to a plurality of UEs in a group of UEs including the UE ; determining a first Hybrid Automatic Repeat reQuest, HARQ, information that corresponds to the group communication on the PDSCH; receiving , from the base station, a unicast communication on the PDSCH; determining a second HARQ information that corresponds to the unicast communication on the PDSCH; and transmitting the first HARQ information and the second HARQ information together on one Physical Uplink Control Channel, PUCCH, resource or one Physical Uplink Shared Channel, PUSCH, resource based on a Downlink, DL, grant that is associated with the unicast communication on the PDSCH.
A surgical instrument assembly, comprising: a proximal shaft assembly comprising a proximal drive member ; a distal shaft assembly attachable to and detachable from said proximal shaft assembly, wherein said distal shaft assembly comprises a distal drive member configured to be coupled to and decoupled from said proximal drive member, wherein said distal drive member is configured to be actuated through a drive stroke by said proximal drive member to actuate a function of said surgical instrument assembly, and wherein said drive stroke comprises: a beginning of stroke position; an end of stroke position distal to said beginning of stroke position; and a home position; and an end effector , wherein said proximal drive member and said distal drive member are configured to be coupled to and decoupled from each other when said proximal drive member and said distal drive member are in said home position, characterised in that said home position is either: proximal to said beginning of stroke position; or distal to said beginning of stroke position and proximal to said end of stroke position and aligned with a low loading point of said drive stroke. a proximal shaft assembly comprising a proximal drive member ; a distal shaft assembly attachable to and detachable from said proximal shaft assembly, wherein said distal shaft assembly comprises a distal drive member configured to be coupled to and decoupled from said proximal drive member, wherein said distal drive member is configured to be actuated through a drive stroke by said proximal drive member to actuate a function of said surgical instrument assembly, and wherein said drive stroke comprises: a beginning of stroke position; an end of stroke position distal to said beginning of stroke position; and a home position; and a beginning of stroke position; an end of stroke position distal to said beginning of stroke position; and a home position; and an end effector , wherein said proximal drive member and said distal drive member are configured to be coupled to and decoupled from each other when said proximal drive member and said distal drive member are in said home position, characterised in that said home position is either: proximal to said beginning of stroke position; or distal to said beginning of stroke position and proximal to said end of stroke position and aligned with a low loading point of said drive stroke.
A method of creating a digital prothesis design of a prothesis (10; 201), which when manufactured can be placed on at least one implant placed in a first jaw of a patient and creating a digital guide design (20; 204) of a positioning guide, which when manufactured can be used to position the prothesis on the at least one implant so that the manufactured prothesis is in a desired occlusal contact with a dental anatomy of a second jaw opposite the first jaw, wherein the method comprising steps of, - obtaining a digital first jaw model comprising a surface representation of at least a part of the first jaw and of an at least one expected implant site comprising a digital abutment representation of an abutment arranged at the at least one expected implant site, - creating the digital prothesis design (10; 201) comprising a distal prothesis surface and a proximal prothesis surface (11; 208) wherein the proximal prothesis surface comprises at least one abutment hole , and creating the shape of the abutment hole larger than the digital abutment representation , - obtaining a digital second jaw model of the second jaw comprising a surface representation of at least a part of the second jaw opposing the at least one expected implant site, and - creating a digital guide design (20;204) of the positioning guide comprising a distal guide surface (22; 206) which at least partly comprises a shape corresponding to the shape of a part of the digital second jaw model and a proximal guide surface (21; 205) which at least partly comprises a shape corresponding to the shape of a part of the distal prothesis surface. - obtaining a digital first jaw model comprising a surface representation of at least a part of the first jaw and of an at least one expected implant site comprising a digital abutment representation of an abutment arranged at the at least one expected implant site, - creating the digital prothesis design (10; 201) comprising a distal prothesis surface and a proximal prothesis surface (11; 208) wherein the proximal prothesis surface comprises at least one abutment hole , and creating the shape of the abutment hole larger than the digital abutment representation , - obtaining a digital second jaw model of the second jaw comprising a surface representation of at least a part of the second jaw opposing the at least one expected implant site, and - creating a digital guide design (20;204) of the positioning guide comprising a distal guide surface (22; 206) which at least partly comprises a shape corresponding to the shape of a part of the digital second jaw model and a proximal guide surface (21; 205) which at least partly comprises a shape corresponding to the shape of a part of the distal prothesis surface.
An aqueous composition suitable for topical ophthalmic administration comprising a viscosity enhancing amount of combination of two polymers having a synergistic effect on the composition's viscosity and wherein the combination of two polymers is selected from the group consisting of hydroxypropyl methylcellulose and hyaluronic acid or hydroxyethylcellulose, wherein the concentration of hydroxypropyl methylcellulose ranges from 0.05-0.5 % (w/v).
A method of computing an algorithm ( m , S ) with input m and secret S , using one or more white-box encoded operations, comprising: defining a white-box fully-homomorphic key generation function ( P , p) ← Gen(1 w ) with public-key P and private-key p that selects random prime numbers p , q, s ∈ W of similar size, wherein: B = b is the domain of order b , of the algorithm ; W = w is a white-box domain of order w , for w >> b ; p > 2 b is a white-box fully-homomorphic private key; N = pq; k = s(p - 1) ; P = (N, k ) is a white-box fully-homomorphic public key; defining a white-box fully-homomorphic encoding function Enc( P , m ) := m rk +1 (mod N ) that generates a random integer r ∈ W, then performs an encoding of the input m ∈ B ; defining a white-box fully-homomorphic decoding function Dec( p , c ) := c (mod p ) that decodes c by computing c modulo p ; accepting an encoded input c, where c = Enc( P , m ); accepting an encoded secret S ', where S ' = Enc( P , S ); performing one or more operations on the encoded input c and the encoded secret S ' modulo N to obtain an encoded output c '; and decoding the encoded output c' with the private key p to recover an output m' according to m' = Dec( p , c '), such that defining a white-box fully-homomorphic key generation function ( P , p) ← Gen(1 w ) with public-key P and private-key p that selects random prime numbers p , q, s ∈ W of similar size, wherein: B = b is the domain of order b , of the algorithm ; W = w is a white-box domain of order w , for w >> b ; p > 2 b is a white-box fully-homomorphic private key; N = pq; k = s(p - 1) ; P = (N, k ) is a white-box fully-homomorphic public key; B = b is the domain of order b , of the algorithm ; W = w is a white-box domain of order w , for w >> b ; p > 2 b is a white-box fully-homomorphic private key; N = pq; k = s(p - 1) ; P = (N, k ) is a white-box fully-homomorphic public key; defining a white-box fully-homomorphic encoding function Enc( P , m ) := m rk +1 (mod N ) that generates a random integer r ∈ W, then performs an encoding of the input m ∈ B ; defining a white-box fully-homomorphic decoding function Dec( p , c ) := c (mod p ) that decodes c by computing c modulo p ; accepting an encoded input c, where c = Enc( P , m ); accepting an encoded secret S ', where S ' = Enc( P , S ); performing one or more operations on the encoded input c and the encoded secret S ' modulo N to obtain an encoded output c '; and decoding the encoded output c' with the private key p to recover an output m' according to m' = Dec( p , c '), such that
A tuned mass damper mounted on a machine tool head mounted on the end of an arm having a rotary tool that moves in the X, Y, and Z directions and rotates around a C-axis that is coincident with the long axis of the arm , the damper comprising - a pair of damper masses symmetrically arranged around the head , each damper mass having a center of gravity which is approximately in the geometric center of the damper mass , wherein the pair of damper masses are positioned on the head symmetrically around the center of the C-axis of rotation of the head ; and - a resilient mounting for each of the damper masses , whereby the damper masses damp out vibration in the X and Y directions regardless of the orientation of the head ; - a pair of support blocks for suspending each of the pair of damper masses , the pair of support blocks being spaced along the Z-axis of the head , - a resilient mount between the support blocks and the damper masses ; - a plurality of biasing bolts , symmetrically located around the center of gravity of the damper mass , coupling the support blocks to the damper masses , characterised in that the the biasing bolts exert a preload on the resilient mounts to achieve the desired damper frequency; and - a compression member is mounted on each biasing bolt for adjusting the preload on the resilient mount . - a pair of damper masses symmetrically arranged around the head , each damper mass having a center of gravity which is approximately in the geometric center of the damper mass , wherein the pair of damper masses are positioned on the head symmetrically around the center of the C-axis of rotation of the head ; and - a resilient mounting for each of the damper masses , whereby the damper masses damp out vibration in the X and Y directions regardless of the orientation of the head ; - a pair of support blocks for suspending each of the pair of damper masses , the pair of support blocks being spaced along the Z-axis of the head , - a resilient mount between the support blocks and the damper masses ; - a plurality of biasing bolts , symmetrically located around the center of gravity of the damper mass , coupling the support blocks to the damper masses , characterised in that the the biasing bolts exert a preload on the resilient mounts to achieve the desired damper frequency; and - a compression member is mounted on each biasing bolt for adjusting the preload on the resilient mount .
A system for operating an end effector of a robot comprising: a robot , an end effector of the robot , a memory configured to store a Numerical Control (NC) program directing the robot; and a controller configured to direct actuators of the robot to reposition the end effector based on the NC program, in which the end effector comprises: an extendable punch configured to place targets onto a part ; supports configured to hold a strip of reflective adhesive tape between the punch and the part , the tape having a reflective side and an adhesive side ; and a piston configured to extend the punch cut out a target from the strip , apply the adhesive side of the target to the part , retract the punch , and leave the reflective side of the target visible on the part . a robot , an end effector of the robot , a memory configured to store a Numerical Control (NC) program directing the robot; and a controller configured to direct actuators of the robot to reposition the end effector based on the NC program, in which the end effector comprises: an extendable punch configured to place targets onto a part ; supports configured to hold a strip of reflective adhesive tape between the punch and the part , the tape having a reflective side and an adhesive side ; and a piston configured to extend the punch cut out a target from the strip , apply the adhesive side of the target to the part , retract the punch , and leave the reflective side of the target visible on the part . an extendable punch configured to place targets onto a part ; supports configured to hold a strip of reflective adhesive tape between the punch and the part , the tape having a reflective side and an adhesive side ; and a piston configured to extend the punch cut out a target from the strip , apply the adhesive side of the target to the part , retract the punch , and leave the reflective side of the target visible on the part .
A pharmaceutical composition for use in a method of preventing or treating an Enterococcal blood stream infection in a subject that has received, is receiving or will receive a chemotherapy, wherein the pharmaceutical composition comprises multiple purified bacterial strains, wherein at least one of the bacterial strains comprises a 16S rRNA sequence that is at least 97% identical to the nucleotide sequence of SEQ ID NO: 621 or SEQ ID NO: 756, wherein the subject is at risk of developing or has developed the Enterococcal blood stream infection due to treatment with the chemotherapy.
Sealing device for building comprising a duct and a linking member (14; 14, 80) comprising a linking plate , the linking member being mounted around and rigidly connected to the duct, wherein the duct comprises: - an axial main portion around which the linking member (14; 14, 80) is mounted, - a radial bead formed on the main portion and extending radially outwards, and - a distal end portion extending the main portion radially outwards and which is axially facing the bead to form therebetween an outwardly radially open annular mounting slot , the distal end portion extending radially beyond the bead , - the main portion , the distal end portion and the bead of the duct being made in one piece, - the linking member (14; 14, 80) being mounted in the mounting slot and gripped axially between the bead and the distal end portion of the duct, - the distal end portion of the duct comprising at least one local deformation extending on the side of the linking member (14; 14, 80) and engaged in said linking member. - an axial main portion around which the linking member (14; 14, 80) is mounted, - a radial bead formed on the main portion and extending radially outwards, and - a distal end portion extending the main portion radially outwards and which is axially facing the bead to form therebetween an outwardly radially open annular mounting slot , the distal end portion extending radially beyond the bead , - the main portion , the distal end portion and the bead of the duct being made in one piece, - the linking member (14; 14, 80) being mounted in the mounting slot and gripped axially between the bead and the distal end portion of the duct, - the distal end portion of the duct comprising at least one local deformation extending on the side of the linking member (14; 14, 80) and engaged in said linking member.
Method for controlling a solenoid valve of an agricultural sprayer apparatus, the method comprising the steps of: - impressing an inrush current into a solenoid valve of the agricultural sprayer apparatus in order to initiate a movement of an armature from a blocking position (S) into a release position (F); and - impressing a holding current into the solenoid valve in order to hold the armature in the release position (F); the impression of the holding current being initiated depending on the current (I) flowing through the solenoid valve , characterized by the step of: - determining a switching time (t 4 , ts), at which the impression of the inrush current is interrupted and/or the impression of the holding current is initiated, the switching time (t 4 , t 5 ) being determined depending on the current (I) flowing through the solenoid valve , in order to determine the switching time (t 4 , t 5 ) the following step being carried out: - detecting a specific change in the temporal development of the current (I) flowing through the solenoid valve , during which the inrush current is impressed into the solenoid valve . - impressing an inrush current into a solenoid valve of the agricultural sprayer apparatus in order to initiate a movement of an armature from a blocking position (S) into a release position (F); and - impressing a holding current into the solenoid valve in order to hold the armature in the release position (F); the impression of the holding current being initiated depending on the current (I) flowing through the solenoid valve , characterized by the step of: - determining a switching time (t 4 , ts), at which the impression of the inrush current is interrupted and/or the impression of the holding current is initiated, the switching time (t 4 , t 5 ) being determined depending on the current (I) flowing through the solenoid valve , - determining a switching time (t 4 , ts), at which the impression of the inrush current is interrupted and/or the impression of the holding current is initiated, the switching time (t 4 , t 5 ) being determined depending on the current (I) flowing through the solenoid valve , in order to determine the switching time (t 4 , t 5 ) the following step being carried out: - detecting a specific change in the temporal development of the current (I) flowing through the solenoid valve , during which the inrush current is impressed into the solenoid valve . - detecting a specific change in the temporal development of the current (I) flowing through the solenoid valve , during which the inrush current is impressed into the solenoid valve .
An array substrate, comprising a base substrate, and a first functional layer and a second functional layer laminated one on another on the base substrate, wherein the first functional layer forms a level-different region on the base substrate, and the second functional layer covers the level-different region; a portion of the first functional layer at the level-different region is provided with a target gradient angle, the target gradient angle is a gradient angle when the second functional layer has a predetermined thickness, and the predetermined thickness is a thickness when a functional requirement of the second functional layer has been met and the second functional layer is not broken at the level-different region; and the target gradient angle of the first functional layer and the predetermined thickness of the second functional layer meet Tan(a)-1≤N(x-y)/y≤Tan(a)+1, where N=z×W×K IC , z is a constant, W is a predetermined value, Kic is a fracture toughness parameter of the second functional layer, x is the predetermined thickness of the second functional layer, y is a thickness of a portion of the first functional layer at the level-differential region, and a is the target gradient angle of the first functional layer. the first functional layer forms a level-different region on the base substrate, and the second functional layer covers the level-different region; a portion of the first functional layer at the level-different region is provided with a target gradient angle, the target gradient angle is a gradient angle when the second functional layer has a predetermined thickness, and the predetermined thickness is a thickness when a functional requirement of the second functional layer has been met and the second functional layer is not broken at the level-different region; and the target gradient angle of the first functional layer and the predetermined thickness of the second functional layer meet Tan(a)-1≤N(x-y)/y≤Tan(a)+1, where N=z×W×K IC , z is a constant, W is a predetermined value, Kic is a fracture toughness parameter of the second functional layer, x is the predetermined thickness of the second functional layer, y is a thickness of a portion of the first functional layer at the level-differential region, and a is the target gradient angle of the first functional layer.
An oral or topical composition comprising a nuclear factor erythroid-2 related factor 2 agonist and a liver X receptor agonist, wherein the amounts of each of the nuclear factor erythroid-2 related factor 2 agonist and the liver X receptor agonist produce a synergistic benefit of hair fibre growth, and/or produce a synergistic induction of the antioxidant response element and/or up-regulation of hem oxygenase 1 in HaCaT immortalised human keratinocyte cells and/or up-regulation of NAD(P)H dehydrogenase (quinone) 1 in human hair follicle cells, wherein the oral or topical composition comprises ≤ 9, preferably ≤ 8 % w/w β-sitosterol, and wherein the nuclear factor erythroid-2 related factor 2 agonist comprises granilin and the liver X receptor agonist comprises a compound selected from the group consisting of 22(R)-hydroxycholesterol, 3-[3-[[[2-chloro-3-(trifluoromethyl)phenyl]methyl](2,2- diphenylethyl)amino]propoxy]benzeneacetic acid hydrochloride and/or salts thereof, and stigmasterol; or wherein the nuclear factor erythroid-2 related factor 2 agonist comprises 1μM sulforaphane and the liver X receptor agonist comprises 10μM 22(R)-hydroxycholesterol, and wherein when the oral or topical composition comprises a catechin, the oral or topical composition comprises 0.001 to 90, preferably 0.005 to 70, most preferably 0.01 to 50 % w/w catechins, wherein the oral or topical composition excludes pregnenolone, 4, 5-dihydrofuranodiene-6-one, epoxy santamarin, hydroquinone, longistyline, monacolin K, protoanemonin, N-(2,2,2-trifluoro-ethyl)-N-[4-(2,2,2-tri- fluoro-1-hydroxy-1-trifluoromethyl-ethyl)-phenyl]-benzenesulfonamide, dihydronepetalactone, iridomyrmecin, and dihydroactinidiolide, wherein when the oral or topical composition comprises guggelsterone and epigallocatechin gallate, the oral or topical composition excludes a guggelsterone to epigallocatechin gallate weight ratio of 1 to 28, and wherein when the oral or topical composition comprises sodium dialuramide glutamide lysine, the oral or topical composition excludes 0.3 % w/w sodium dilauramide glutamide lysine.