mhurhangee/ep-ind-claims huggingface dataset:
A method for producing multi-poled piezoelectric devices with a first poling direction and a second poling direction different from the first poling direction from a first piezoelectric device, the method comprising: a) providing a first piezoelectric device, the first piezoelectric device comprising: a first bottom electrode, a first piezoelectric layer, a first top electrode (202, 203), and a first substrate; b) separating the first piezoelectric device into a plurality of piezoelectric devices by etching one or more of the first bottom electrode, the first piezoelectric layer, or the first top electrode, wherein each of the plurality of piezoelectric devices comprises a bottom electrode, a piezoelectric layer, and a top electrode; c) generating one or more vertical interconnect access vias by etching the first piezoelectric layer and the first top electrode and stopping the etching at a top surface of the first bottom electrode; d) generating independent bottom electrodes by etching the first piezoelectric layer, the first top electrode, and the first bottom electrode and stopping the etching at a top surface of a dielectric layer; and e) depositing a re-distribution layer, RDL, over the first piezoelectric device and the one or more vertical interconnect access vias, wherein step e) comprises: i) depositing a RDL dielectric layer over the first piezoelectric device; and ii) depositing a RDL conductor layer over the RDL dielectric layer. a) providing a first piezoelectric device, the first piezoelectric device comprising: a first bottom electrode, a first piezoelectric layer, a first top electrode (202, 203), and a first substrate; b) separating the first piezoelectric device into a plurality of piezoelectric devices by etching one or more of the first bottom electrode, the first piezoelectric layer, or the first top electrode, wherein each of the plurality of piezoelectric devices comprises a bottom electrode, a piezoelectric layer, and a top electrode; c) generating one or more vertical interconnect access vias by etching the first piezoelectric layer and the first top electrode and stopping the etching at a top surface of the first bottom electrode; d) generating independent bottom electrodes by etching the first piezoelectric layer, the first top electrode, and the first bottom electrode and stopping the etching at a top surface of a dielectric layer; and e) depositing a re-distribution layer, RDL, over the first piezoelectric device and the one or more vertical interconnect access vias,
A handgun safety device comprising: a safety element (22, 90) with a firing interrupting element (44, 92) configured for snug projection between a face (69, 96) of a duty cartridge (70, 98) and a fore end of a functional firing element (58, 93); a cord having a full length between a first end and a second end thereof, said safety element being attached to the first end, the second end being configured for attaching to an article worn by a user; characterized in that the handgun safety device further comprises a cord retractor mechanism, wherein the cord is associated with said cord retractor mechanism. a safety element (22, 90) with a firing interrupting element (44, 92) configured for snug projection between a face (69, 96) of a duty cartridge (70, 98) and a fore end of a functional firing element (58, 93); a cord having a full length between a first end and a second end thereof, said safety element being attached to the first end, the second end being configured for attaching to an article worn by a user; characterized in that the handgun safety device further comprises a cord retractor mechanism, wherein the cord is associated with said cord retractor mechanism.
A particle and at least one anti-cancer agent or cytotoxic agent for use in a method of treating cancer, the method comprising administering to a human subject in need thereof a therapeutically effective amount of said particle and at least one anti-cancer agent or cytotoxic agent, wherein the anti-cancer agent or cytotoxic agent is encapsulated within the particle, wherein the particle comprises from about 20 to about 200 conjugates each comprising: a first peptide, wherein the first peptide is SEQ ID NO: 1; a first polymer covalently linked to an amino acid residue of the peptide, other than the N-terminal and C-terminal amino acid residues, wherein the first polymer is polyethylene glycol with a molecular weight of about 2000 Da; at least one second polymer covalently linked to the C-terminal amino acid residue of the peptide, wherein the second polymer is polyethylene glycol with a molecular weight of about 750 Da; and a hydrophobic moiety covalently linked to the N-terminus of the peptide, wherein the hydrophobic moiety is a lipid moiety comprising lysine and two C18 acyl chains. a first peptide, wherein the first peptide is SEQ ID NO: 1; a first polymer covalently linked to an amino acid residue of the peptide, other than the N-terminal and C-terminal amino acid residues, wherein the first polymer is polyethylene glycol with a molecular weight of about 2000 Da; at least one second polymer covalently linked to the C-terminal amino acid residue of the peptide, wherein the second polymer is polyethylene glycol with a molecular weight of about 750 Da; and a hydrophobic moiety covalently linked to the N-terminus of the peptide, wherein the hydrophobic moiety is a lipid moiety comprising lysine and two C18 acyl chains.
A wagon (10, 10a, 10b, 10c, 10d, 10e, 10f, 10g, 10h), comprising: a base frame adapted to receive a load; a plurality of sidewalls, each pivotally mounted to the base frame and positionable in a use position defining a container and a stored position; a plurality of wheels attached to the base frame; a collapsible footwell feature (40, 40a, 40b, 40c, 40d) including a footrest (42, 42a, 42b, 42c, 42d) and a plurality of upright elements (44, 44a, 44b, 44c, 44d), wherein the plurality of upright elements connect the footrest to the base frame, and wherein the collapsible footwell feature is positionable into a plurality of orientations, including a collapsed position and an extended position, and a position-locking handle feature including:a handle that is repositionable between multiple use positions and a storage or transport position, and characterized in that the collapsed position compresses the plurality of upright elements (44, 44a, 44b, 44c, 44d) so that the collapsible footwell feature (40, 440a, 40b, 40c, 40d) is adjacent to the base frame, and wherein the extended position extends the plurality of upright elements so that the footrest (42, 42a, 42b, 42c, 42d) is positioned at a distance away from the base frame. a base frame adapted to receive a load; a plurality of sidewalls, each pivotally mounted to the base frame and positionable in a use position defining a container and a stored position; a plurality of wheels attached to the base frame; a collapsible footwell feature (40, 40a, 40b, 40c, 40d) including a footrest (42, 42a, 42b, 42c, 42d) and a plurality of upright elements (44, 44a, 44b, 44c, 44d), wherein the plurality of upright elements connect the footrest to the base frame, and wherein the collapsible footwell feature is positionable into a plurality of orientations, including a collapsed position and an extended position, and a position-locking handle feature including:a handle that is repositionable between multiple use positions and a storage or transport position, and characterized in that the collapsed position compresses the plurality of upright elements (44, 44a, 44b, 44c, 44d) so that the collapsible footwell feature (40, 440a, 40b, 40c, 40d) is adjacent to the base frame, and wherein the extended position extends the plurality of upright elements so that the footrest (42, 42a, 42b, 42c, 42d) is positioned at a distance away from the base frame.
A robot manipulator including a plurality of arm bodies provided in series and a plurality of joints comprising joint shafts rotatably connecting adjacent two of the arm bodies to each other comprising: a first arm body that rotates around a first joint shaft axis that is arranged vertically within a horizontal plane; a second arm body that rotates around a second joint shaft axis that is arranged orthogonally to the first joint shaft axis; a third arm body that rotates around a third joint shaft axis that is arranged orthogonally to the second joint shaft; a fourth arm body that rotates around a fourth joint shaft axis that is arranged orthogonally to the third joint shaft axis; a fifth arm body that rotates around a fifth joint shaft axis that is arranged orthogonally to the fourth joint shaft axis; and a sixth arm body that rotates around a sixth joint shaft axis that is arranged orthogonally to the fifth joint shaft axis, wherein the sixth arm body includes a seventh joint shaft with a seventh joint shaft axis that is arranged orthogonally to the sixth joint shaft axis, characterized in that when the robot manipulator extends vertically with respect to the first vertical shaft axis, the third joint shaft axis, fifth joint shaft axis, and a seventh joint shaft axis are offset from the first vertical shaft axis, and the third joint shaft axis, fifth joint shaft axis, and seventh joint shaft axis are coaxial in vertical direction.
Subassembly, in particular, electrical subassembly, which can be attached to a mounting rail and which, by shifting in a line-up direction, can be lined up along it against an adjoining subassembly arranged on the mounting rail with a base body and with a foot part that can be shifted with relation to base body and against the shifting direction, wherein the subassembly can be separated from the adjoining subassembly by shifting the foot part in the shifting direction, characterized in that, during separation, it is shifted simultaneously against the line-up direction from the adjoining subassembly.
A hexapod system comprising a first and a second support and six linear actuators (10a, 10b, 10c, 10d, 10e, 10f), each linear actuator having two ends articulated respectively to the first and to the second support by a ball joint connection (41, 42, 43, 44), comprising a force-absorbing structure on the one hand embedded on the first support and on the other hand coupled to the second support by a ball joint connection (51, 52), at least one of the first and the second support including a connector (21a, 21b) configured to cooperate with said force-absorbing structure so as to form together said embedding, respectively said ball joint connection (51, 52), the connector (21a, 21b) being further configured so as to cooperate with a second force-absorbing structure of a second hexapod system, the two hexapod systems being mounted in series, so as to form with this second force-absorbing structure a ball joint connection, respectively an embedding, the same connector thus cooperating with the force-absorbing structures of two hexapod systems mounted in series.
An apparatus, comprising: a moving drying belt configured to receive a product to be dried on a first surface of the moving drying belt; a manifold that is positioned above the moving drying belt, wherein the manifold includes one or more orifices that inject conditioned air laterally across a width of the moving drying belt; drying chambers through which the moving drying belt passes, wherein the drying chambers have water in contact with a second surface of the moving drying belt to heat the product, and wherein the drying chambers have independently controlled water temperatures; a cover that covers and provides an adjustable headspace above the moving drying belt, wherein the manifold is positioned between the cover and the moving drying belt; and one or more drying chambers between the cover and the moving drying belt, wherein each of the one or more drying chambers provide one or more of an independently controlled air velocity, an independently controlled humidity and an independently controlled air temperature. a moving drying belt configured to receive a product to be dried on a first surface of the moving drying belt; a manifold that is positioned above the moving drying belt, wherein the manifold includes one or more orifices that inject conditioned air laterally across a width of the moving drying belt; drying chambers through which the moving drying belt passes, wherein the drying chambers have water in contact with a second surface of the moving drying belt to heat the product, and wherein the drying chambers have independently controlled water temperatures; a cover that covers and provides an adjustable headspace above the moving drying belt, wherein the manifold is positioned between the cover and the moving drying belt; and one or more drying chambers between the cover and the moving drying belt, wherein each of the one or more drying chambers provide one or more of an independently controlled air velocity, an independently controlled humidity and an independently controlled air temperature.
A catheter system comprising - an at least partially flexible catheter body, - several ring electrodes, and - several strain gauges, wherein the ring electrodes surround at least a portion of the flexible catheter body, wherein the strain gauges are respectively allocated to the ring electrodes, wherein the strain gauges are configured to measure a deformation of the flexible catheter body at respective positions allocated to the ring electrodes to detect a contact between the ring electrodes and tissue, and wherein the catheter system is a Pig Tail catheter. - an at least partially flexible catheter body, - several ring electrodes, and - several strain gauges,
Conversion circuit comprising - a first input terminal configured to receive a digital signal (RFin), - a second input terminal configured to receive a bias voltage signal (Vb), - an output terminal configured to output a current (RFout), - a first and a second switch transistor, each one of the first and the second switch transistor having a gate terminal connected to said first input terminal for receiving said digital signal (RFin), - a first and a second current source transistor, each one of the first and the second current source transistor having a gate terminal connected to said second input terminal for receiving said bias voltage signal (Vb), whereby said conversion circuit comprises a first branch wherein a drain terminal of said first switch transistor is connected to said output terminal via a source terminal and a drain terminal of said first current source transistor and a second branch wherein a drain terminal of said second current source transistor is connected to said output terminal via a drain terminal and a source terminal of said second switch transistor. - a first input terminal configured to receive a digital signal (RFin), - a second input terminal configured to receive a bias voltage signal (Vb), - an output terminal configured to output a current (RFout), - a first and a second switch transistor, each one of the first and the second switch transistor having a gate terminal connected to said first input terminal for receiving said digital signal (RFin), - a first and a second current source transistor, each one of the first and the second current source transistor having a gate terminal connected to said second input terminal for receiving said bias voltage signal (Vb),
A process for producing a Ziegler-Natta catalyst for the polymerization of olefins comprising the steps of: a. combining a support consisting of spherical spray-cooled MgCl 2 -xROH, wherein ROH is an alcohol or a mixture of at least two different alcohols, with R being a linear, cyclic or branched hydrocarbon unit with 1-10 carbon atoms and wherein x is in the range of from 1.5 to 6.0, with a transition metal compound in a reactor at a temperature of between -30°C and +40°C; b. heating the mixture in the reactor to a temperature of between 30°C to 100°C; c. concurrent with the heating in step (b), or following reaching the temperature of step (b), adding an internal electron donor to the mixture in the reactor; d. heating the resulting mixture to at least 80°C and holding the resulting mixture at that temperature for 1 to 2 hours to produce a pre-catalyst; e. cooling the mixture containing the pre-catalyst to room temperature (20°C) and filtering the mixture containing the pre-catalyst to obtain the solid pre-catalyst component; f. extracting the pre-catalyst with a mixture of an organic solvent and a transition metal compound at a temperature of at least 100°C for 1-5 hours to form a catalyst; g. cooling the catalyst to room temperature, washing the catalyst several times with a hydrocarbon solvent and drying the catalyst under vacuum and/or elevated temperature of30-100°C. a. combining a support consisting of spherical spray-cooled MgCl 2 -xROH, wherein ROH is an alcohol or a mixture of at least two different alcohols, with R being a linear, cyclic or branched hydrocarbon unit with 1-10 carbon atoms and wherein x is in the range of from 1.5 to 6.0, with a transition metal compound in a reactor at a temperature of between -30°C and +40°C; b. heating the mixture in the reactor to a temperature of between 30°C to 100°C; c. concurrent with the heating in step (b), or following reaching the temperature of step (b), adding an internal electron donor to the mixture in the reactor; d. heating the resulting mixture to at least 80°C and holding the resulting mixture at that temperature for 1 to 2 hours to produce a pre-catalyst; e. cooling the mixture containing the pre-catalyst to room temperature (20°C) and filtering the mixture containing the pre-catalyst to obtain the solid pre-catalyst component; f. extracting the pre-catalyst with a mixture of an organic solvent and a transition metal compound at a temperature of at least 100°C for 1-5 hours to form a catalyst; g. cooling the catalyst to room temperature, washing the catalyst several times with a hydrocarbon solvent and drying the catalyst under vacuum and/or elevated temperature of30-100°C.
Fuel cell system, in particular for a motor vehicle, having at least one fuel cell, having a cooling system for cooling the fuel cell, wherein a cooling medium is able to be circulated in the cooling system, having an inlet stream (13, 20) by which a starting material is able to be fed to the fuel cell, and having an outlet stream (14, 21) by which a product is able to be discharged from the fuel cell, wherein, in the outlet stream (14, 21), there is arranged at least one cooling element (22, 23) by which the outlet stream (14, 21) is able to be cooled and, in the outlet stream (14, 21), there is arranged downstream of the cooling element (22, 23) in the flow direction a cooling device (31, 36) in which the cooling medium is able to be cooled by the outlet stream (14, 21), characterized in that the cooling element (22, 23) is a turbine by which, in particular, a compressor of the inlet stream (13, 20) is able to be driven.
Food preparation system, in particular a cooking system, having at least one cooking utensil, which at least partially delimits at least one food receiving space for holding at least one food and which is provided to be heated by a cooking appliance, characterised in that the cooking utensil has at least one sensor unit, which is provided to detect at least one weight parameter.
A method of measuring shot shape by using a mask as defined in claim 5 comprising: sequentially exposing a substrate with main scale marks in compliance with a predetermined map, thereby forming a reference grid including a plurality of the main scale marks arranged in the predetermined map in at least one shot region, wherein, simultaneous to exposing the main scale mark, surrounding marks (40; 42 and 44), which are suitable for being used in measuring a relative positional relationship between the main scale mark and another main scale mark formed adjacent to it, are formed between the main scale mark and the other main scale mark; exposing a shot for measuring, via a projection optical system, that includes a plurality of auxiliary scale marks arranged in the predetermined map in the shot region superimposed with the main scale marks to indicate a relative amount of deviation between the plurality of main scale marks and the plurality of auxiliary scale marks; measuring a relative positional relationship between adjacent main scale marks in the shot region exposed on the substrate using the surrounding marks; measuring an amount of deviation between the main scale marks and the auxiliary scale marks; and correcting the reference grid based on the relative positional relationship, and calculating a shot shape of the shot for measuring based on the corrected reference grid and the amount of deviation sequentially exposing a substrate with main scale marks in compliance with a predetermined map, thereby forming a reference grid including a plurality of the main scale marks arranged in the predetermined map in at least one shot region, wherein, simultaneous to exposing the main scale mark, surrounding marks (40; 42 and 44), which are suitable for being used in measuring a relative positional relationship between the main scale mark and another main scale mark formed adjacent to it, are formed between the main scale mark and the other main scale mark; exposing a shot for measuring, via a projection optical system, that includes a plurality of auxiliary scale marks arranged in the predetermined map in the shot region superimposed with the main scale marks to indicate a relative amount of deviation between the plurality of main scale marks and the plurality of auxiliary scale marks; measuring a relative positional relationship between adjacent main scale marks in the shot region exposed on the substrate using the surrounding marks; measuring an amount of deviation between the main scale marks and the auxiliary scale marks; and correcting the reference grid based on the relative positional relationship, and calculating a shot shape of the shot for measuring based on the corrected reference grid and the amount of deviation
A system comprising a plurality of electronic devices, each comprising a device housing and a rechargeable battery, and a charger comprising a charger housing and arranged for charging said rechargeable batteries, wherein said charger comprises at least one wireless power transmitting coil in said housing and said electronic devices each comprise a wireless power receiving coil in said housing, wherein said at least one power transmitting coil is arranged along an axis, and wherein said charger housing and said device housings are formed such that the power receiving coils of said electronic devices can be placed and held in an array along said axis by placing said electronic devices in an array against each other, such that each power receiving coil has one of said at least one power transmitting coil in its vicinity, characterized in that said axis with said at least one power transmitting coil extends from a base member of said charger housing, such that said multitude of electronic devices can be placed in a stack along said axis, such that only the first electronic device of said stack touches the base member.