mhurhangee/patent-ind-claim-en huggingface dataset:
A method of testing a structure, in particular a strand ground anchor, comprising at least one tensile element , the method comprising the steps of: - Providing at least one tensile element , in particular at least one strand bundle; - Providing at least one removable and optionally a sacrificial core , in particular at least one rigid or flexible string; - Arranging the core at a position where a cavity is to be created, in particular arranging the core substantially coaxially to the tensile element , wherein the core is placed as close as feasible to the tensile element ; - Embedding the at least one tensile element and the at least one core in a first hardening and/or hardenable material , in particular in cement grout; - Allowing or causing said first material to harden; - Creating at least one cavity in the first material by removing the at least one removable core from the hardened first material; - Applying a load, in particular a tensile load, to the structure to a predetermined load level and maintaining said load level; - Filling a hardening and/or hardenable second material , preferably a curable liquid, into the at least one cavity created; - Permitting or causing said second material to harden while maintaining the load; - Removing the load from the structure after the second material has reached a compressive strength that is at least equal to the compressive strength of the first material; - Providing at least one tensile element , in particular at least one strand bundle; - Providing at least one removable and optionally a sacrificial core , in particular at least one rigid or flexible string; - Arranging the core at a position where a cavity is to be created, in particular arranging the core substantially coaxially to the tensile element , wherein the core is placed as close as feasible to the tensile element ; - Embedding the at least one tensile element and the at least one core in a first hardening and/or hardenable material , in particular in cement grout; - Allowing or causing said first material to harden; - Creating at least one cavity in the first material by removing the at least one removable core from the hardened first material; - Applying a load, in particular a tensile load, to the structure to a predetermined load level and maintaining said load level; - Filling a hardening and/or hardenable second material , preferably a curable liquid, into the at least one cavity created; - Permitting or causing said second material to harden while maintaining the load; - Removing the load from the structure after the second material has reached a compressive strength that is at least equal to the compressive strength of the first material;
An inkjet head comprising: a stack of plates including: an orifice plate formed with a plurality of nozzles through which ink droplets are ejected; a first restrictor plate ; a chamber plate that forms a plurality of chambers corresponding with the respective nozzles; a second restrictor plate ; and a diaphragm plate that has a diaphragm for sealing the chambers; wherein a return manifold for circulating ink through the inkjet head is formed in the first restrictor plate , the chamber plate , the second restrictor plate , and the diaphragm plate in the stack of plates; wherein the first restrictor plate controls a flow of ink between the chambers and the return manifold; wherein the inkjet head further comprises a supply manifold formed in the diaphragm plate and the second restrictor plate , and the second restrictor plate controls the flow of ink between the supply manifold and the chambers, wherein a portion of the return manifold formed in the first restrictor plate and the chamber plate , and the supply manifold are aligned in the stacking direction. an orifice plate formed with a plurality of nozzles through which ink droplets are ejected; a first restrictor plate ; a chamber plate that forms a plurality of chambers corresponding with the respective nozzles; a second restrictor plate ; and a diaphragm plate that has a diaphragm for sealing the chambers; wherein a return manifold for circulating ink through the inkjet head is formed in the first restrictor plate , the chamber plate , the second restrictor plate , and the diaphragm plate in the stack of plates; wherein the first restrictor plate controls a flow of ink between the chambers and the return manifold; wherein the inkjet head further comprises a supply manifold formed in the diaphragm plate and the second restrictor plate , and the second restrictor plate controls the flow of ink between the supply manifold and the chambers, wherein a portion of the return manifold formed in the first restrictor plate and the chamber plate , and the supply manifold are aligned in the stacking direction.
A DC power system , comprising: a main bus , a plurality of power delivery devices (G1-G8, 11-15) configured to be connected to the main bus , a first zone partitioning device , and a control system , wherein the first zone partitioning device is configured to segregate the main bus into a first protection zone (Z2) which is a section of the main bus to which power delivery devices (11-15) with a fault clearance requirement in a first time range are configured to be connected, and a second protection zone (Z1) which is a section of the main bus to which power delivery devices (G1-G4) with a fault clearance requirement in a second time range, which includes times that are higher than any time included in the first time range, are configured to be connected and to which no power delivery device (11-15) with a fault clearance requirement in the first time range is configured to be connected, wherein the control system is configured to control the first zone partitioning device to allow load current to flow from the first protection zone (Z2) to the second protection zone (Z1) and to limit fault current flow from the first protection zone (Z2) to the second protection zone (Z1). a main bus , a plurality of power delivery devices (G1-G8, 11-15) configured to be connected to the main bus , a first zone partitioning device , and a control system , wherein the first zone partitioning device is configured to segregate the main bus into a first protection zone (Z2) which is a section of the main bus to which power delivery devices (11-15) with a fault clearance requirement in a first time range are configured to be connected, and a second protection zone (Z1) which is a section of the main bus to which power delivery devices (G1-G4) with a fault clearance requirement in a second time range, which includes times that are higher than any time included in the first time range, are configured to be connected and to which no power delivery device (11-15) with a fault clearance requirement in the first time range is configured to be connected, wherein the control system is configured to control the first zone partitioning device to allow load current to flow from the first protection zone (Z2) to the second protection zone (Z1) and to limit fault current flow from the first protection zone (Z2) to the second protection zone (Z1).
An alignment system comprising: an alignment source module configured to releasably couple to a first unit of a pair of optoelectronic arrays such that the alignment source module is oriented to emit an optical beam in substantial alignment with a first optical axis of the first unit ; and, an alignment indicator module configured to releasably couple to a second unit of the pair of optoelectronic arrays such that the alignment indicator module provides a visible indication when the optical beam is within a predetermined near-alignment orientation range relative to a second optical axis of the second unit, wherein the near-alignment orientation range comprises a range between 4° to 16°, and defines a range of misalignment between the first optical axis and the second optical axis more precise than an unaided alignment and less precise than a subsequent precision alignment, and, wherein each of the alignment source module and the alignment indicator module is configured to axially couple along a longitudinal axis of the respective unit of the pair of optoelectronic arrays, the longitudinal axis being substantially parallel with an array of optical elements of the respective unit. an alignment source module configured to releasably couple to a first unit of a pair of optoelectronic arrays such that the alignment source module is oriented to emit an optical beam in substantial alignment with a first optical axis of the first unit ; and, an alignment indicator module configured to releasably couple to a second unit of the pair of optoelectronic arrays such that the alignment indicator module provides a visible indication when the optical beam is within a predetermined near-alignment orientation range relative to a second optical axis of the second unit, wherein the near-alignment orientation range comprises a range between 4° to 16°, and defines a range of misalignment between the first optical axis and the second optical axis more precise than an unaided alignment and less precise than a subsequent precision alignment, and, wherein each of the alignment source module and the alignment indicator module is configured to axially couple along a longitudinal axis of the respective unit of the pair of optoelectronic arrays, the longitudinal axis being substantially parallel with an array of optical elements of the respective unit.
A handling device for exchanging hard drives from a drawer having a plurality of hard drives arranged in a storage magazine , which handling device has a base frame and a supporting frame , which is adjustable relative thereto in the vertical direction , - wherein the supporting frame is guided along guide rails of the base frame , - wherein the supporting frame has a maintenance region with a rest surface , - wherein gripping tongs are movable linearly parallel to the rest surface in order to pull the drawer with the storage magazine onto the rest surface and to convey this drawer into its starting position, - wherein a hard drive gripping unit having a parallel gripping device hangs movably from a cross slide of the supporting frame , and - wherein the parallel gripping device is adjustable vertically relative to the supporting frame by means of a height adjustment unit . - wherein the supporting frame is guided along guide rails of the base frame , - wherein the supporting frame has a maintenance region with a rest surface , - wherein gripping tongs are movable linearly parallel to the rest surface in order to pull the drawer with the storage magazine onto the rest surface and to convey this drawer into its starting position, - wherein a hard drive gripping unit having a parallel gripping device hangs movably from a cross slide of the supporting frame , and - wherein the parallel gripping device is adjustable vertically relative to the supporting frame by means of a height adjustment unit .
Method for manufacturing an ophthalmic lens comprising a substrate and a functional film securely fastened to a curved face (S1) of said substrate , said manufacturing method comprising a method for gluing said functional film, which is initially flat, to said curved face (S1), said gluing method comprising steps of: i) preforming said functional film (32; 53) to give it a curvature; ii) bringing the centre of the convex face of said functional film (32; 53) into contact with the centre of the curved face (S1) of said substrate ; and iii) then applying said functional film (32; 53) in order to diffuse radially from the centre of the film (32; 53) as far as its periphery the conformal contact between said film (32; 53) and said substrate ; characterized in that , in order to ensure that said functional film (32; 53) when securely fastened to said curved face (S1) is configured to filter a preset band of wavelengths: - an interferential and organic filtering film (32; 53) is selected as said functional film; and - the gluing method is carried out so that the maximum of the degree of major deformation experienced by the film (32; 53) on a surface (S0) is lower than 3%. i) preforming said functional film (32; 53) to give it a curvature; ii) bringing the centre of the convex face of said functional film (32; 53) into contact with the centre of the curved face (S1) of said substrate ; and iii) then applying said functional film (32; 53) in order to diffuse radially from the centre of the film (32; 53) as far as its periphery the conformal contact between said film (32; 53) and said substrate ; - an interferential and organic filtering film (32; 53) is selected as said functional film; and - the gluing method is carried out so that the maximum of the degree of major deformation experienced by the film (32; 53) on a surface (S0) is lower than 3%.
Supply device comprising a grain separation apparatus of an agricultural sowing machine, wherein the grain separation apparatus has a separation apparatus with a seed storage space , to which the crop to be separated is fed from a collecting tank of the supply device , wherein the collecting tank of the supply device has at least two feed openings , wherein crop feed devices (9.2.1, 9.2.2) are respectively arranged on the feed openings , wherein at least one storage tank (9.2.2) with drop delivery is to be arranged on at least one of the feed openings in the immediate vicinity of the feed opening of the collecting tank , wherein a pneumatic refilling device is to be arranged at at least one other feed opening , characterized in that an interface of the feed openings is formed uniformly so that both the pneumatic refilling device and the storage tank (9.2.2) are to be arranged.
An anaerobically curable composition comprising: (i) a curing system for curing an anaerobically curable component; wherein the curing system comprises a curing accelerator, the curing accelerator comprising a metallocene and acetyl phenyl hydrazine; (ii) the anaerobically curable component comprising: a solid resin component, and a solid anaerobically curable monomer; and wherein the composition is solid and has a melting point in the range from 30° C to 100° C, and wherein the composition does not contain saccharin. (i) a curing system for curing an anaerobically curable component; wherein the curing system comprises a curing accelerator, the curing accelerator comprising a metallocene and acetyl phenyl hydrazine; (ii) the anaerobically curable component comprising: a solid resin component, and a solid anaerobically curable monomer; and a solid resin component, and a solid anaerobically curable monomer; and
A folded package comprising: a hollow paper cone having an exterior, an interior, a length, a center axis along the length, a width, and two ends opposite each other joined by a middle section, where one end is a proximal end , and the other end is a distal end and where the length is greater than the width; a filling within the cone ; wherein the distal end comprises approximately a quarter of the length of the cone; wherein the distal end of the cone terminates at a rim ; wherein a portion of the distal end is crimped in on itself and folded into the interior of the cone such that the rim of the distal end is held by plastic deformation of the paper within the interior of the cone and forms a circumferential lip of paper at the distal end; wherein the portion of the distal end that is crimped in on itself and folded into the interior of the cone is folded such that it forms an access hole located along the center axis of the cone; and wherein the filling further comprises a core of fluid along the center axis. a hollow paper cone having an exterior, an interior, a length, a center axis along the length, a width, and two ends opposite each other joined by a middle section, where one end is a proximal end , and the other end is a distal end and where the length is greater than the width; a filling within the cone ; wherein the distal end comprises approximately a quarter of the length of the cone; wherein the distal end of the cone terminates at a rim ; wherein a portion of the distal end is crimped in on itself and folded into the interior of the cone such that the rim of the distal end is held by plastic deformation of the paper within the interior of the cone and forms a circumferential lip of paper at the distal end; wherein the portion of the distal end that is crimped in on itself and folded into the interior of the cone is folded such that it forms an access hole located along the center axis of the cone; and wherein the filling further comprises a core of fluid along the center axis.
Infrared radiator with a burner and a fan , wherein the burner is connected to a fuel gas supply , wherein the fan is set up to supply the burner with combustion air, wherein the fuel gas supply can be connected to a hydrogen source as fuel gas source, wherein a UV sensor is arranged, which is set up to detect at least one parameter of the flame generated by the burner, characterised in that the infrared radiator is a dark radiator, which comprises a radiant tube , in which the burner is arranged, wherein the UV sensor is aligned with the base of the flame.
A method of sending network data, the method comprising: transmitting data on a communication link, in an environment, wherein a network control overhead portion of the data is allocated to network control overhead data packets for controlling how data is transmitted on the communication link, and a user data portion of the data is allocated to user data packets for transmitting data between users of nodes on the communication link, wherein each of the overhead data packets are transmitted independent of each of the user data packets ; identifying a degradation in data capacity of the communication link; as a result, causing a change in the network control overhead portion of the data, changing size of network control overhead data packets to make the network control overhead data packets smaller to attempt to maintain a predetermined proportion factor for the network control overhead portion as compared to the user data portion; and transmitting the network control overhead portion of the data according to the change. transmitting data on a communication link, in an environment, wherein a network control overhead portion of the data is allocated to network control overhead data packets for controlling how data is transmitted on the communication link, and a user data portion of the data is allocated to user data packets for transmitting data between users of nodes on the communication link, wherein each of the overhead data packets are transmitted independent of each of the user data packets ; identifying a degradation in data capacity of the communication link; as a result, causing a change in the network control overhead portion of the data, changing size of network control overhead data packets to make the network control overhead data packets smaller to attempt to maintain a predetermined proportion factor for the network control overhead portion as compared to the user data portion; and transmitting the network control overhead portion of the data according to the change.
A cell structure comprising: a cathode; an anode; and a solid electrolyte layer interposed between the cathode and the anode, the cathode being in the form of a sheet, the anode being in the form of a sheet, the solid electrolyte layer being in the form of a sheet, the solid electrolyte layer being disposed on the anode, the cathode being disposed on the solid electrolyte layer, the cathode having a resistance Rc, the anode and the solid electrolyte layer having a resistance Ra, the resistance Rc and the resistance Ra satisfying a relationship of Rc/Ra ≥ 0.3, the resistances Ra and Rc being measured as defined in the description, the cathode including a first metal oxide having a perovskite crystal structure, the cathode having a thickness larger than 15 μm and equal to or less than 30 μm. a cathode; an anode; and a solid electrolyte layer interposed between the cathode and the anode, the cathode being in the form of a sheet, the anode being in the form of a sheet, the solid electrolyte layer being in the form of a sheet, the solid electrolyte layer being disposed on the anode, the cathode being disposed on the solid electrolyte layer, the cathode having a resistance Rc, the anode and the solid electrolyte layer having a resistance Ra, the resistance Rc and the resistance Ra satisfying a relationship of Rc/Ra ≥ 0.3, the resistances Ra and Rc being measured as defined in the description, the cathode including a first metal oxide having a perovskite crystal structure, the cathode having a thickness larger than 15 μm and equal to or less than 30 μm.
Energy storage device in the form of a high-voltage battery comprising a housing having one or several storage cells or storage cell modules accommodated therein and one or several cooling means lines through which runs a cooling means flowing via a cooling means circuit, wherein the one or the several cooling means lines are integrated in one or several walls of the housing and on the housing side run in an uninterrupted manner from an inlet connection situated outside the housing to an outlet connection also situated outside the housing , wherein the one or the several cooling means lines are formed by pipes which are completely injection-moulded or cast into the one or the several walls .
A method of reducing the number or percentage of pluripotent stem cells or of enriching differentiating or differentiated cells in a cell population comprising pluripotent stem cells and differentiating cells or differentiated cells derived from the pluripotent stem cells, the method comprising the step of contacting the cell population with a compound according to the following general formula and/or racemates, enantiomers, stereoisomers, solvates, hydrates or salts thereof: wherein: R 1 , R 2 the same or independent from each other are hydrogen or represent a double bond from the nitrogen atom to the adjacent non-cyclic carbon atom; R 3 , R 4 are the same or independently from each other selected from the group comprising hydrogen, linear or branched C 1 -C 8 -alkyl, C 2 -C 8 -alkenyl, C 3 -C 8 -cycloalkyl, C 6 -C 10 -aryl, C 1 -C 8 -alkoxy and halogen; E 1 , E 2 are the same or independent from each other a 5- or 6-membered aromatic or heteroaromatic ring selected from the group comprising thiophenyl, pyrrolyl, pyridyl and phenyl; A is selected from the group of structural elements of formulas and : -(Z) n -B-(Z) m - -CHR'-(Z) p - , wherein: B is selected from the group comprising C 3 -C 8 -cycloalkyl, C 3 -C 8 -heterocycloalkyl, C 6 -C 10 -aryl and C 5 -C 10 -heteroaryl; Z is the same or independently from each other selected from the group comprising -CH 2 -, -CHR'-, O, S, NH, NR'; R' is the same or independently from each other selected from the group comprising hydrogen, C 1 -C 5 -alkyl, C 2 -C 8 -alkenyl, C 3 -C 8 -cycloalkyl and C 6 -C 10 -aryl; n, m are the same or independent from each other 0, 1 or 2; p is 1, 2, 3, 4 or 5. R 1 , R 2 the same or independent from each other are hydrogen or represent a double bond from the nitrogen atom to the adjacent non-cyclic carbon atom; R 3 , R 4 are the same or independently from each other selected from the group comprising hydrogen, linear or branched C 1 -C 8 -alkyl, C 2 -C 8 -alkenyl, C 3 -C 8 -cycloalkyl, C 6 -C 10 -aryl, C 1 -C 8 -alkoxy and halogen; E 1 , E 2 are the same or independent from each other a 5- or 6-membered aromatic or heteroaromatic ring selected from the group comprising thiophenyl, pyrrolyl, pyridyl and phenyl; A is selected from the group of structural elements of formulas and : -(Z) n -B-(Z) m - -CHR'-(Z) p - , wherein: B is selected from the group comprising C 3 -C 8 -cycloalkyl, C 3 -C 8 -heterocycloalkyl, C 6 -C 10 -aryl and C 5 -C 10 -heteroaryl; Z is the same or independently from each other selected from the group comprising -CH 2 -, -CHR'-, O, S, NH, NR'; R' is the same or independently from each other selected from the group comprising hydrogen, C 1 -C 5 -alkyl, C 2 -C 8 -alkenyl, C 3 -C 8 -cycloalkyl and C 6 -C 10 -aryl; n, m are the same or independent from each other 0, 1 or 2; p is 1, 2, 3, 4 or 5.