mhurhangee/ep-ind-claims huggingface dataset:
A solar cell pre-lamination assembly comprising a solar cell component and a film or sheet wherein the solar cell component comprises or is formed of one or a plurality of electronically interconnected solar cells; the solar cell component has a light-receiving side that faces a light source and a back side that is opposite from the light source; the film or sheet is made of a terionomer composition; the terionomer is derived from an acid terpolymer that is 5% to 90% of its carboxylic acid content neutralized with one or more metal ions and comprises copolymerized units derived from an α-olefin, 18 to 25 wt% of an α,β-ethylenically unsaturated carboxylic acid having 3 to 8 carbons, and 0.5 to 40 wt% of an α,β-ethylenically unsaturated carboxylic acid ester having 4 to 12 carbons, based on the total weight of the acid terpolymer, wherein the film or sheet is a single layer.
Specimen carrier (K, K') for receiving an endsection of a pipe-shaped specimen body for carrying out a load capacity test, the specimen carrier (K, K') having an inside (Ki) which, in the intended mounting position, is oriented towards a middle section of the specimen body to be tested, and an outside (Ko) which is opposite in the axial direction (A, B) of the specimen body, and a jacket surface (Km) between the inside and the outside, and wherein the specimen carrier (K, K') has - a pipe receptacle (G, G2, G') which is designed to fix the endsection of the specimen body to the specimen carrier; characterized in that - the specimen carrier (K, K') is designed to be received in a surrounding housing passage with an annular contact against the housing passage, and - in that the specimen carrier (K, K') further has an annular sealing structure (S, S1) which is arranged on the jacket surface (Km) of the specimen carrier (K, K'), the sealing structure (S, S1) being designed to · forming an annular seal with respect to the housing passage and · allowing displacement of the specimen carrier (K, K') in the axial direction (A, B) along the housing passage. - a pipe receptacle (G, G2, G') which is designed to fix the endsection of the specimen body to the specimen carrier; - the specimen carrier (K, K') is designed to be received in a surrounding housing passage with an annular contact against the housing passage, and - in that the specimen carrier (K, K') further has an annular sealing structure (S, S1) which is arranged on the jacket surface (Km) of the specimen carrier (K, K'), the sealing structure (S, S1) being designed to · forming an annular seal with respect to the housing passage and · allowing displacement of the specimen carrier (K, K') in the axial direction (A, B) along the housing passage. · forming an annular seal with respect to the housing passage and · allowing displacement of the specimen carrier (K, K') in the axial direction (A, B) along the housing passage.
An antibody or a fragment thereof that specifically binds to hemopexin for use in the treatment and/or prevention of a retinal disease in which there is a dysfunction of the external blood retinal barrier, the dysfunction being an alteration or impairment of the blood-retinal barrier for any etiology, wherein the retinal disease is selected from the group consisting of age-related macular degeneration, macular edema, retinitis pigmentosa, and diabetic retinopathy.
A surgical fastener including: a first leg; a second leg, the first and second legs being constructed to remain in an open position after deployment of the fastener; and a backspan extending from the first leg to the second leg; and first and second outer corners arranged so that the first leg meets the backspan at the first outer corner and the second leg meets the backspan at the second outer corner, characterised in that the backspan comprises a first portion and a second portion, the first portion being defined by a central pad, and the second portion being defined by the remaining part of the backspan that extends from the central pad to each of the first and second outer corners, wherein the central pad protrudes past a bottom surface of the backspan in a direction in which the first and second legs extend. a first leg; a second leg, the first and second legs being constructed to remain in an open position after deployment of the fastener; and a backspan extending from the first leg to the second leg; and first and second outer corners arranged so that the first leg meets the backspan at the first outer corner and the second leg meets the backspan at the second outer corner, characterised in that the backspan comprises a first portion and a second portion, the first portion being defined by a central pad, and the second portion being defined by the remaining part of the backspan that extends from the central pad to each of the first and second outer corners, wherein the central pad protrudes past a bottom surface of the backspan in a direction in which the first and second legs extend.
A display device with integrated photovoltaic cells, comprising: (a) an array of image zones emitting light or backlit by a light source placed behind the array of image zones; (b) an array formed by a plurality of photovoltaic cells (7, 8) and a plurality of openings formed between two adjacent photovoltaic cells of said array, and; (c) a lens array that enables focussing the light emitted by said image zones in the opening between two adjacent photovoltaic cells (7, 8), said device being characterised in that said lens array is positioned between said array of image zones and said array of photovoltaic cells (7, 8). (a) an array of image zones emitting light or backlit by a light source placed behind the array of image zones; (b) an array formed by a plurality of photovoltaic cells (7, 8) and a plurality of openings formed between two adjacent photovoltaic cells of said array, and; (c) a lens array that enables focussing the light emitted by said image zones in the opening between two adjacent photovoltaic cells (7, 8), said device being characterised in that said lens array is positioned between said array of image zones and said array of photovoltaic cells (7, 8).
A method for detecting a network problem-causing client by using a client route control system, the method comprising the steps of: forming an edge server Internet Protocol allocation matrix; checking a network problem occurrence in an edge server (132, 134, 136, 138); allocating an edge server IP according to the edge server IP allocation matrix when a network problem occurs in an edge server; and detecting user information or a client IP, which has no edge server IP to be allocated according to the edge server IP allocation matrix, as a network problem-causing client, wherein an edge server IP is allocated differently for each user information or client IP in the edge server IP allocation matrix, and the edge server IP allocation being performed by at least two-stage edge server IP for each user information or client IP, in preparation for the case where a network problem occurs in the edge server of the first stage connecting with the client, the edge server of the second stage is pre-designated to be accessed in a reserved manner in such a way that the client has a unique route of edge servers. forming an edge server Internet Protocol allocation matrix; checking a network problem occurrence in an edge server (132, 134, 136, 138); allocating an edge server IP according to the edge server IP allocation matrix when a network problem occurs in an edge server; and detecting user information or a client IP, which has no edge server IP to be allocated according to the edge server IP allocation matrix, as a network problem-causing client, wherein an edge server IP is allocated differently for each user information or client IP in the edge server IP allocation matrix, and
A sliding member, comprising a base layer including soft particles made of a soft material softer than a matrix and deposited in the matrix, and a soft layer made of the soft material formed on a surface of the base layer, characterized in that: a boundary portion is formed between crystal grains that have a unique crystal grain structure of the soft particles and crystal grains that have a unique crystal grain structure of the soft layer different to that of the soft particles, and in that an anodic oxidation film of the soft material is formed on the boundary portion. a boundary portion is formed between crystal grains that have a unique crystal grain structure of the soft particles and crystal grains that have a unique crystal grain structure of the soft layer different to that of the soft particles, and in that an anodic oxidation film of the soft material is formed on the boundary portion.
A drilling device for drilling a hole in the ground and/or rock and having in its drilling head a plurality of drilling wing bits arranged at equal distribution with their mutual position being adjustable such that said wing bits are located within a minimum diameter dimension and, on the other hand, adjustable such that they are expanded radially with a rotation axis being parallel with a drilling direction to drill a hole with a maximum size diameter and that the drilling device is arranged to pull, during drilling, a protective pipe into the hole at least when drilling the hole in the ground, wherein an outer circumference of said wing bits includes a circumferential groove arranged to receive a ring belonging to a front part of the protective pipe, to an inner surface thereof, when said wing bits are adjusted to a diameter size substantially larger than the minimum diameter dimension in order to pull in axial direction the protective pipe by means of said wing bits, characterized in that the drilling device enables drilling both with the wing bits in an extended position and with the wing bits in a retracted position.
A compound selected from Formula 1 or Formula 1A, N -oxides and salts thereof, wherein E is Y 1, Y 2 and Y 3 in Formula 1 form a ring selected from wherein the bond projecting to the left labeled with * in L-1, L-2 and L-9 is bonded to E in Formula 1 and the bond projecting to the right labeled with a T is bonded to G in Formula 1; Y 2, X 1 and X 2 in Formula 1A form a ring selected from wherein the bond projecting to the left labeled with * in L-60 and L-64 is bonded to E in Formula 1A and the bond projecting to the right labeled with a T is bonded to G in Formula 1A; n is an integer from 0 to 4; R 14 is H, cyano, hydroxy, C 1 -C 2 alkyl or C 1 -C 2 alkoxy: R 23 is H; Gis wherein the bond projecting to the left is bonded to Y 2 in Formula 1 or Formula 1A, and the bond projecting to the right is bonded to J in Formula 1 or Formula 1A; R 29a is H; J is wherein the bond shown projecting to the left is bonded to G in Formula 1 or Formula 1A and to an available carbon atom ring member in the J ring; x is 1; R 6 is -ZQ; Z is a direct bond; Q is selected from and each R 6a is independently F, Cl, Br, hydroxy, cyano, methyl or methoxy; R 6c is H or methyl; p is 0, 1 or 2; A 1 is CHR 15; R 15 is H; W 1 is O; R 1a is wherein R 33 is attached to a carbon ring member, said R 33 is selected from R 33a; k is 1 or 2; and each R 33a is independently halogen, C 1 -C 3 alkyl, C 1 -C 3 haloalkyl or C 2 -C 3 alkoxyalkyl. E is Y 1, Y 2 and Y 3 in Formula 1 form a ring selected from wherein the bond projecting to the left labeled with * in L-1, L-2 and L-9 is bonded to E in Formula 1 and the bond projecting to the right labeled with a T is bonded to G in Formula 1; Y 2, X 1 and X 2 in Formula 1A form a ring selected from wherein the bond projecting to the left labeled with * in L-60 and L-64 is bonded to E in Formula 1A and the bond projecting to the right labeled with a T is bonded to G in Formula 1A; n is an integer from 0 to 4; R 14 is H, cyano, hydroxy, C 1 -C 2 alkyl or C 1 -C 2 alkoxy: R 23 is H; Gis wherein the bond projecting to the left is bonded to Y 2 in Formula 1 or Formula 1A, and the bond projecting to the right is bonded to J in Formula 1 or Formula 1A; R 29a is H; J is wherein the bond shown projecting to the left is bonded to G in Formula 1 or Formula 1A and to an available carbon atom ring member in the J ring; x is 1; R 6 is -ZQ; Z is a direct bond; Q is selected from and each R 6a is independently F, Cl, Br, hydroxy, cyano, methyl or methoxy; R 6c is H or methyl; p is 0, 1 or 2; A 1 is CHR 15; R 15 is H; W 1 is O; R 1a is wherein R 33 is attached to a carbon ring member, said R 33 is selected from R 33a; k is 1 or 2; and each R 33a is independently halogen, C 1 -C 3 alkyl, C 1 -C 3 haloalkyl or C 2 -C 3 alkoxyalkyl.
Motion control system, which has a first motion controller, a second motion controller, a data bus and a global time, wherein first trace data recorded by the first motion controller with a first trace has a time stamp dependent on the global time and wherein second trace data recorded by the second motion controller with a second trace has a time stamp dependent on the global time and wherein the different trace data (15, 17) is linked via the respective time stamp, wherein a trigger can be transmitted to the first and second motion controller (3, 5) via the data bus, characterised in that - the trigger has time information and the time information is provided simultaneously with the trigger for transmission and - a trace end for terminating the recording of the trace data (15, 17) is provided for determination from the time information comprised by the trigger. - the trigger has time information and the time information is provided simultaneously with the trigger for transmission and - a trace end for terminating the recording of the trace data (15, 17) is provided for determination from the time information comprised by the trigger.
A control device comprising: an interface module having a power supply unit configured to supply electric power to a field device installed in an industrial plant; an application executer configured to output a reset signal for resetting the field device; and a converter configured to convert the reset signal, which has been output from the application executer, into a format which is suitable for the power supply unit, wherein the power supply unit comprises: a power source configured to supply the electric power to the field device; a cutoff part comprising a switch for cutting off the electric power supplied from the power source to the field device; and a controller configured to control the cutoff part, and wherein if the reset signal converted by the converter has been input into the controller, the controller is configured to turn off the switch of the cutoff part to stop supplying the electric power from the power source to the field device, and the controller is configured to subsequently turn on the switch of the cutoff part to restart supplying the electric power from the power source to the field device after the power source of the field device was turned off. an interface module having a power supply unit configured to supply electric power to a field device installed in an industrial plant; an application executer configured to output a reset signal for resetting the field device; and a converter configured to convert the reset signal, which has been output from the application executer, into a format which is suitable for the power supply unit, wherein the power supply unit comprises: a power source configured to supply the electric power to the field device; a cutoff part comprising a switch for cutting off the electric power supplied from the power source to the field device; and a controller configured to control the cutoff part, and a power source configured to supply the electric power to the field device; a cutoff part comprising a switch for cutting off the electric power supplied from the power source to the field device; and a controller configured to control the cutoff part, and wherein if the reset signal converted by the converter has been input into the controller, the controller is configured to turn off the switch of the cutoff part to stop supplying the electric power from the power source to the field device, and the controller is configured to subsequently turn on the switch of the cutoff part to restart supplying the electric power from the power source to the field device after the power source of the field device was turned off.
An instrument drive unit configured for driving an actuation of a surgical instrument and to operatively support the surgical instrument, the instrument drive unit comprising: a hub defining a channel extending therethrough; a plurality of actuators (216a-216d) nested with one another and disposed through the channel; and a plurality of rotatable driving members (226a, 226b) rotatably coupled to the hub, wherein each driving member of the plurality of driving members is rotatably coupled to one actuator of the plurality of actuators such that rotation of each driving member of the plurality of driving members independently axially moves one actuator of the plurality of actuators. a hub defining a channel extending therethrough; a plurality of actuators (216a-216d) nested with one another and disposed through the channel; and a plurality of rotatable driving members (226a, 226b) rotatably coupled to the hub, wherein each driving member of the plurality of driving members is rotatably coupled to one actuator of the plurality of actuators such that rotation of each driving member of the plurality of driving members independently axially moves one actuator of the plurality of actuators.
A laminate for biosensor comprising: a pressure-sensitive adhesive layer for attaching to a living body; and a substrate layer disposed on the upper face of the pressure-sensitive adhesive layer, wherein the laminate for biosensor includes a moisture barrier layer disposed inside the pressure-sensitive adhesive layer and having an exposed lower face, and a probe embedded in the moisture barrier layer and having a lower face exposed from the lower face of the moisture barrier layer. a pressure-sensitive adhesive layer for attaching to a living body; and a substrate layer disposed on the upper face of the pressure-sensitive adhesive layer, wherein the laminate for biosensor includes a moisture barrier layer disposed inside the pressure-sensitive adhesive layer and having an exposed lower face, and a probe embedded in the moisture barrier layer and having a lower face exposed from the lower face of the moisture barrier layer.
Fibre-reinforced, curable plastics pellets characterized in that the fibre reinforcement of the pellets comprises carbon fibres in the form of tangled bundles having a length of < 2 mm and the plastic of the pellets comprises a resin based on phenol-formaldehyde condensates, the weight ratio of resin to carbon fibres being between 4:1 and 1:1.5.
Method for the laser beam welding of an edge fillet weld with a diminished end crater, in which method a laser beam for generating an edge fillet weld portion is guided with an advancing movement in a welding direction along a joint of two partially overlapping components (20, 30), wherein a weld end portion adjoining the edge fillet weld portion is formed, from which weld end portion molten material flows out into the edge fillet weld portion in that, when an end point of the edge fillet weld portion to be formed is reached, the laser beam is offset onto the top metal sheet transversely to the advancing movement, and the advancing movement of the laser beam is continued in the welding direction over an additional distance, while the power of the laser beam is reduced to at least below the deep-welding threshold. in which method a laser beam for generating an edge fillet weld portion is guided with an advancing movement in a welding direction along a joint of two partially overlapping components (20, 30), wherein a weld end portion adjoining the edge fillet weld portion is formed, from which weld end portion molten material flows out into the edge fillet weld portion in that, when an end point of the edge fillet weld portion to be formed is reached, the laser beam is offset onto the top metal sheet transversely to the advancing movement, and the advancing movement of the laser beam is continued in the welding direction over an additional distance, while the power of the laser beam is reduced to at least below the deep-welding threshold.
A method for controlling a contour of a structure, the method comprising: obtaining actual contour data for the structure; receiving target contour data associated with a desired structu re; comparing the actual contour data and the target contour data; responsive to the comparison, determining forces to be applied to the structure by a force control module to control the location and configuration of a structure contour; and activating the force control module to apply the determined forces, wherein activating the force control module to apply the determined forces comprises controlling an air cushion pad associated with the force control module, wherein the air cushion pad is configured to be selectively inflated to apply a force to a surface or point of the structure in contact with the air cushion pad; and wherein the air cushion pad is configured to be selectively deflated to reduce the force applied to the surface or point of the structure in contact with the air cushion pad; wherein activating the force control module to apply the determined forces comprises controlling a vacuum cup associated with the force control module, wherein: the vacuum cup is configured to be selectively activated to apply a force to the structure; and the vacuum cup is configured to be selectively deactivated to reduce the force applied by the vacuum cup to the structure. obtaining actual contour data for the structure; receiving target contour data associated with a desired structu re; comparing the actual contour data and the target contour data; responsive to the comparison, determining forces to be applied to the structure by a force control module to control the location and configuration of a structure contour; and activating the force control module to apply the determined forces, wherein activating the force control module to apply the determined forces comprises controlling an air cushion pad associated with the force control module, wherein the air cushion pad is configured to be selectively inflated to apply a force to a surface or point of the structure in contact with the air cushion pad; and wherein the air cushion pad is configured to be selectively deflated to reduce the force applied to the surface or point of the structure in contact with the air cushion pad; wherein activating the force control module to apply the determined forces comprises controlling a vacuum cup associated with the force control module, wherein: the vacuum cup is configured to be selectively activated to apply a force to the structure; and the vacuum cup is configured to be selectively deactivated to reduce the force applied by the vacuum cup to the structure. the vacuum cup is configured to be selectively activated to apply a force to the structure; and the vacuum cup is configured to be selectively deactivated to reduce the force applied by the vacuum cup to the structure.
A wear resistant coating for deposition on a tile, the wear resistant coating comprising a strontium aluminosilicate glass-ceramic composition that is formed from a glaze that comprises a crystallizing component, wherein the crystallizing component comprises a mixture of oxides comprising SiO 2, Al 2 O 3, CaO, SrO, K 2 O, MgO and ZnO, wherein the crystallizing component comprises less than 2 weight percent each of lithium, boron, barium, sodium, iron, titanium, zirconium, and carbon, and wherein said oxides are present in a 45 to 55 weight percent of SiO 2, 20 to 25 weight percent of Al 2 O 3, 5 to 10 weight percent of SrO, 8 to 10 weight percent of CaO, 3 to 6 weight percent of K 2 O, 2 to 3 weight percent of MgO, and up to 2 weight percent of ZnO excluding the 0 value, for a total maximal value of 100%, based on the total weight of the crystallizing component.