mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a microelectromechanical component that comprises a microelectromechanical chip part and an electronic circuit part, comprising: sealing the microelectromechanical chip part by bonding a cover part to the microelectromechanical chip part, wherein the cover part contains lead-in structures for bringing electric connections through the cover part; manufacturing onto the cover part a redistribution layer that provides a conductive connection to the lead-in structures of the cover part; bonding the microelectromechanical chip part sealed by the cover part to a surface of the electronic circuit part by means of first bonding members, whereby a conductive connection between the lead-in structures of the cover part and the electronic circuit part is created; manufacturing onto said surface of the electronic circuit part bump connectors (84, 85) for external connections of the microelectromechanical component, the height of the bump connectors being at least equal to the total height of the microelectromechanical chip part, the cover part, the first bonding members, and the redistribution layer. sealing the microelectromechanical chip part by bonding a cover part to the microelectromechanical chip part, wherein the cover part contains lead-in structures for bringing electric connections through the cover part; manufacturing onto the cover part a redistribution layer that provides a conductive connection to the lead-in structures of the cover part; bonding the microelectromechanical chip part sealed by the cover part to a surface of the electronic circuit part by means of first bonding members, whereby a conductive connection between the lead-in structures of the cover part and the electronic circuit part is created; manufacturing onto said surface of the electronic circuit part bump connectors (84, 85) for external connections of the microelectromechanical component, the height of the bump connectors being at least equal to the total height of the microelectromechanical chip part, the cover part, the first bonding members, and the redistribution layer.
An aqueous organic pigment dispersion comprising: a green copper phthalocyanine pigment, an azo-coupled β-ketoamide pigment, and at least one organic pigment dispersant in an amount of at least 40 weight % and up to and including 100 weight %, based on the sum of the weights of the green copper phthalocyanine pigment and the azo-coupled β-ketoamide pigment, wherein: the weight ratio of the green copper phthalocyanine pigment to the azo-coupled β-ketoamide pigment is from 1:1 to and including 10:1, and the median particle diameter of each of the green copper phthalocyanine pigment and the azo-coupled β-ketoamide pigment is less than 85 nm and at least 95% of the total particles of each of the green copper phthalocyanine pigment and the azo-coupled β-ketoamide pigment have a particle diameter of less than 150 nm when measured in intensity mode using a laser light scattering particle size analyzer. a green copper phthalocyanine pigment, an azo-coupled β-ketoamide pigment, and at least one organic pigment dispersant in an amount of at least 40 weight % and up to and including 100 weight %, based on the sum of the weights of the green copper phthalocyanine pigment and the azo-coupled β-ketoamide pigment, wherein: the weight ratio of the green copper phthalocyanine pigment to the azo-coupled β-ketoamide pigment is from 1:1 to and including 10:1, and the median particle diameter of each of the green copper phthalocyanine pigment and the azo-coupled β-ketoamide pigment is less than 85 nm and at least 95% of the total particles of each of the green copper phthalocyanine pigment and the azo-coupled β-ketoamide pigment have a particle diameter of less than 150 nm when measured in intensity mode using a laser light scattering particle size analyzer. the weight ratio of the green copper phthalocyanine pigment to the azo-coupled β-ketoamide pigment is from 1:1 to and including 10:1, and the median particle diameter of each of the green copper phthalocyanine pigment and the azo-coupled β-ketoamide pigment is less than 85 nm and at least 95% of the total particles of each of the green copper phthalocyanine pigment and the azo-coupled β-ketoamide pigment have a particle diameter of less than 150 nm when measured in intensity mode using a laser light scattering particle size analyzer.
A yeast cell having an exogenous xylose isomerase gene that is at least 80% homologous to SEQ. ID. NO. 151 but no more than 95% homologous to SEQ. ID. NO. 58 or which produces an enzyme that is at least 80% homologous to SEQ. ID. NO. 152 but no more than 95% homologous to SEQ. ID. NO. 59.
A lower case of a battery module, comprising: a lower case in which a battery is mounted; a cooling block attached to a lower outer surface of the lower case and configured to define a cooling passage extending between the lower case and the cooling block; and nipples mounted in the lower case to introduce and withdraw cooling water into and from the cooling passage, wherein the cooling block is braze-welded or adhesive-bonded to the lower case, and wherein the cooling passage is defined by a carving formed in the lower case and a recess formed in the cooling block. a lower case in which a battery is mounted; a cooling block attached to a lower outer surface of the lower case and configured to define a cooling passage extending between the lower case and the cooling block; and nipples mounted in the lower case to introduce and withdraw cooling water into and from the cooling passage, wherein the cooling block is braze-welded or adhesive-bonded to the lower case, and wherein the cooling passage is defined by a carving formed in the lower case and a recess formed in the cooling block.
A refrigerant distributor (20, 20a) comprising: a first introduction pipe configured to be open at a first end and closed at a second end and to permit refrigerant to flow from the first end toward the second end; a second introduction pipe configured to be closed in ends (11b, 11a) on both upstream and downstream sides and to permit the refrigerant to flow in a direction opposite to a refrigerant flow direction in the first introduction pipe; a plurality of branch pipes (10, 10a, 10b, 10c, 10d, 10e, 10f) connected to the second introduction pipe along the direction of the refrigerant through the second introduction pipe; and an adjusting pipe (13, 17) configured to connect the first introduction pipe and the second introduction pipe, the adjusting pipe (13, 17) connecting a part of the first introduction pipe, the part being on a side of the second end, connecting a side of the second end of the first introduction pipe to between an end of the second introduction pipe on the upstream side and a branch pipe of the branch pipes, the branch pipe being connected to a most upstream side of the second introduction pipe among the branch pipes, characterized in that the adjusting pipe (13, 17) has a U-shape in top view, wherein the top view is a view directed from the first end to the second end. a first introduction pipe configured to be open at a first end and closed at a second end and to permit refrigerant to flow from the first end toward the second end; a second introduction pipe configured to be closed in ends (11b, 11a) on both upstream and downstream sides and to permit the refrigerant to flow in a direction opposite to a refrigerant flow direction in the first introduction pipe; a plurality of branch pipes (10, 10a, 10b, 10c, 10d, 10e, 10f) connected to the second introduction pipe along the direction of the refrigerant through the second introduction pipe; and an adjusting pipe (13, 17) configured to connect the first introduction pipe and the second introduction pipe, the adjusting pipe (13, 17) connecting a part of the first introduction pipe, the part being on a side of the second end, connecting a side of the second end of the first introduction pipe to between an end of the second introduction pipe on the upstream side and a branch pipe of the branch pipes, the branch pipe being connected to a most upstream side of the second introduction pipe among the branch pipes, characterized in that the adjusting pipe (13, 17) has a U-shape in top view, wherein the top view is a view directed from the first end to the second end.
An operating head for a tyre changing machine configured for fitting and removing a tyre from a corresponding rim of a wheel for a vehicle, the operating head comprising: - a connecting element designed for stably connecting the operating head to an arm of the machine; - a body having a first end and a second end spaced along a longitudinal axis, wherein the first end faces in a first direction and is connected to the connecting element, and the second end faces in a second direction opposite to the first direction; - a supporting element integral with the body and elongate along a transversal axis relative to the longitudinal axis and facing in a first direction, wherein the supporting element forms a supporting seat for a removal lever and has a protrusion projecting along an operating direction substantially perpendicular to a reference plane containing the longitudinal axis and the transversal axis; - a drive element, integral with the body and elongate along the transversal axis in a second direction opposite the first direction in which the supporting element faces, characterised in that it comprises a fin connected to the body and protruding from the body in the operating direction to define a guide surface inclined, relative to a plane which is perpendicular to the reference plane and contains the longitudinal axis, to make contact with and guide a bead of the tyre and facilitate an insertion of the selfsame tyre bead in a seat defined by the rim. - a connecting element designed for stably connecting the operating head to an arm of the machine; - a body having a first end and a second end spaced along a longitudinal axis, wherein the first end faces in a first direction and is connected to the connecting element, and the second end faces in a second direction opposite to the first direction; - a supporting element integral with the body and elongate along a transversal axis relative to the longitudinal axis and facing in a first direction, wherein the supporting element forms a supporting seat for a removal lever and has a protrusion projecting along an operating direction substantially perpendicular to a reference plane containing the longitudinal axis and the transversal axis; - a drive element, integral with the body and elongate along the transversal axis in a second direction opposite the first direction in which the supporting element faces,
Tool for lifting a strut from a shock absorber mounted on a motor vehicle, the tool comprising: a first part extending along a vertical Z-axis, a lower distal end of the first part being suitable for connection to a lifting device, a second part extending along an X-axis transverse to the Z axis, the second part being connected to the first part, a third part having a distal end capable of enclosing the strut, the third part being connected to the second part, characterized in that the second part is mounted sliding along the X-axis with respect to the first part, and in that the third part is mounted pivoting about a Y-axis with respect to the second part, the Y-axis being perpendicular to the X-axis.
Tensioning device for tensioning a first cord (K-1; K-3) of a screen, such as a window covering, wherein the screen comprises at least one rail provided with a profile and wherein the tensioning device comprises at least one tension spring and at least one limiting element for limiting the extension of the at least one tension spring, and wherein the tensioning device comprises two co-acting housing parts (3; 4), wherein a first outer end (2-A) and a second outer end (2-B) of the tension spring are connected to respectively the first housing part and the second housing part, wherein the first housing part comprises first cord engaging means for re-routing the cord (K-1; K-3) and the housing parts (3; 4) are slidable apart counter to the action of the spring force of the at least one tension spring, and each limiting element comprises two co-acting limiting element parts, wherein each housing part (3; 4) comprises one of the limiting element parts of each limiting element and the limiting element parts are configured to limit the movement of the housing parts (3; 4), characterized in that the second housing part comprises second cord engaging means for re-routing a second cord (K-2; K-4), wherein the first limiting element part comprises a first slot and the second limiting element part comprises a first cam, wherein the first cam is confined in the first slot and the first cam is slidable in the first slot thereby limiting the movement of the housing part (3;4) and the tension spring.
A computer-implemented method of preventing sensitive data received via a remote access protocol from being output to a human operator, the method comprising: receiving, from a virtual remote server via a remote access protocol, a user interface of an application executing on the virtual remote server, wherein the virtual remote server is in the form of a virtual machine and wherein automated processes are performed on the application executing on the virtual remote server by a virtual operator of the virtual machine using the user interface of the application; determining, or receiving from the virtual remote server, a text-based representation of the application; identifying sensitive data in the user interface and/or the text-based representation of the application using one or more preselected filters; modifying the user interface to remove the identified sensitive data; outputting the modified user interface to one or more output peripherals of a computer for receipt by the human operator. receiving, from a virtual remote server via a remote access protocol, a user interface of an application executing on the virtual remote server, wherein the virtual remote server is in the form of a virtual machine and wherein automated processes are performed on the application executing on the virtual remote server by a virtual operator of the virtual machine using the user interface of the application; determining, or receiving from the virtual remote server, a text-based representation of the application; identifying sensitive data in the user interface and/or the text-based representation of the application using one or more preselected filters; modifying the user interface to remove the identified sensitive data; outputting the modified user interface to one or more output peripherals of a computer for receipt by the human operator.
A cosmetic cleansing composition, containing a) from 0.1 to 30 wt.%, based on the total weight of the cleansing composition, of a surfactant selected from the group consisting of anionic, non-ionic and/or zwitterionic surfactants, and mixtures thereof, b) at least one non-neutralized, unbranched, saturated and/or unsaturated carboxylic acid having a chain length of from 14 to 30 carbon atoms in an amount of from 11 to 22 wt.%, based on the total weight of the cleansing composition, and c) at least one non-ionic polymer of formula in an amount of from 0.1 to 1 wt.%, based on the total weight of the cleansing composition, where R represents a hydrogen atom or a methyl group, and n represents a whole number value of from 1,360 to 99,000. a) from 0.1 to 30 wt.%, based on the total weight of the cleansing composition, of a surfactant selected from the group consisting of anionic, non-ionic and/or zwitterionic surfactants, and mixtures thereof, b) at least one non-neutralized, unbranched, saturated and/or unsaturated carboxylic acid having a chain length of from 14 to 30 carbon atoms in an amount of from 11 to 22 wt.%, based on the total weight of the cleansing composition, and c) at least one non-ionic polymer of formula in an amount of from 0.1 to 1 wt.%, based on the total weight of the cleansing composition, where R represents a hydrogen atom or a methyl group, and n represents a whole number value of from 1,360 to 99,000.
A modular 3D-printing end-effector for binder jet three-dimensional printing using a gantry comprising: - an elongated support module comprising a mounting portion for being mounted to a vertical carrier arm of a gantry to, in use, longitudinally extend in a substantially horizontal direction, - a first module for depositing a powder layer with a mass median diameter (D 50) between 1 and 500 micron; - a second module for evening a height of said powder layer; and - a third module, being an inkjet system with a space between nozzles of 30 to 500 micron and a droplet size of 40 picoliters to 10 nanoliters, for providing a binder fluid to said evened powder layer to form a printed layer, and wherein the first, second, and third module are each connected to a mutually different lateral face of the elongated support module, such that in a horizontal printing motion the first, second and third module pass over a same area in a sequence of first to second to third, and wherein the third module comprises an actuator for moving the third module along the length of the support module. - an elongated support module comprising a mounting portion for being mounted to a vertical carrier arm of a gantry to, in use, longitudinally extend in a substantially horizontal direction, - a first module for depositing a powder layer with a mass median diameter (D 50) between 1 and 500 micron; - a second module for evening a height of said powder layer; and - a third module, being an inkjet system with a space between nozzles of 30 to 500 micron and a droplet size of 40 picoliters to 10 nanoliters, for providing a binder fluid to said evened powder layer to form a printed layer, and - a first module for depositing a powder layer with a mass median diameter (D 50) between 1 and 500 micron; - a second module for evening a height of said powder layer; and - a third module, being an inkjet system with a space between nozzles of 30 to 500 micron and a droplet size of 40 picoliters to 10 nanoliters, for providing a binder fluid to said evened powder layer to form a printed layer, and wherein the first, second, and third module are each connected to a mutually different lateral face of the elongated support module, such that in a horizontal printing motion the first, second and third module pass over a same area in a sequence of first to second to third, and wherein the third module comprises an actuator for moving the third module along the length of the support module.
A gas turbine, comprising: a liner (410, 500, 820, 920, 1020, 1120) configured to receive compressed gas and fuel at an upstream end in a flow direction, a mixture of the compressed gas and the fuel being burned in a combustion core area of the liner, and to output exhaust gasses at an aft end opposite to the upstream end in the flow direction; a casing (810,910,1010,1110) configured to surround the liner; a seal configured to be flexibly connected to the aft end of the liner and to receive the exhaust gasses; and a liner aft end support mechanism located downstream from an area where a highest temperature on an outer surface of the liner is attained, and upstream from a portion of the liner where the seal is connected to the liner, and configured to movably support the liner (410,500) inside the casing, characterized in that the seal is a hula seal; and the liner aft end support mechanism includes at least three individual support elements (800,900,1000,1100,1200) configured to allow a part of the individual support elements to move relative to at least one of the liner or the casing in the flow direction; and wherein each of the individual support elements includes a spring (840, 1040, 1230, 1240) welded to at least one of a casing surface or a liner surface. a liner (410, 500, 820, 920, 1020, 1120) configured to receive compressed gas and fuel at an upstream end in a flow direction, a mixture of the compressed gas and the fuel being burned in a combustion core area of the liner, and to output exhaust gasses at an aft end opposite to the upstream end in the flow direction; a casing (810,910,1010,1110) configured to surround the liner; a seal configured to be flexibly connected to the aft end of the liner and to receive the exhaust gasses; and a liner aft end support mechanism located downstream from an area where a highest temperature on an outer surface of the liner is attained, and upstream from a portion of the liner where the seal is connected to the liner, and configured to movably support the liner (410,500) inside the casing, characterized in that the seal is a hula seal; and the liner aft end support mechanism includes at least three individual support elements (800,900,1000,1100,1200) configured to allow a part of the individual support elements to move relative to at least one of the liner or the casing in the flow direction; and wherein each of the individual support elements includes a spring (840, 1040, 1230, 1240) welded to at least one of a casing surface or a liner surface.
A superconductor delta-sigma analog-to-digital modulator, comprising: an input for receiving an analog signal; a first integrator coupled to the input (32, 33); a second integrator (33, 34) cascaded with the first integrator (32, 33); a quantum comparator digitizing output from the second integrator (33, 34); and characterised by quantum accurate DACs (36, 37) providing biopolar feedback in a feedback loop between output from the quantum comparator and directly coupled to the first integrator (32, 33), the feedback loop including a first DAC transmitting feedback at a first polarity and a second DAC transmitting feedback at a second polarity opposite the first polarity, wherein the quantum accurate DACs are matched. an input for receiving an analog signal; a first integrator coupled to the input (32, 33); a second integrator (33, 34) cascaded with the first integrator (32, 33); a quantum comparator digitizing output from the second integrator (33, 34); and characterised by quantum accurate DACs (36, 37) providing biopolar feedback in a feedback loop between output from the quantum comparator and directly coupled to the first integrator (32, 33), the feedback loop including a first DAC transmitting feedback at a first polarity and a second DAC transmitting feedback at a second polarity opposite the first polarity, wherein the quantum accurate DACs are matched.
A method of evaluating performance of a chiller comprising: detecting a plurality of operating parameters of the chiller with a plurality of sensors; individually determining a first term of coefficient of performance, COP, degradation due to condenser fouling; individually determining a second term of COP degradation due to condenser water flow reduction; individually determining a third term of COP degradation due to evaporator fouling; characterised by; determining a total COP degradation of the chiller with a summation of the first, second and third terms of COP degradations, generating an alert if the total COP degradation exceeds a predetermined threshold for a predetermined amount of time, wherein a low level alert is generated if a first threshold is exceeded and a high level alert is generated if a second threshold is exceeded, the second threshold being greater than the first threshold. detecting a plurality of operating parameters of the chiller with a plurality of sensors; individually determining a first term of coefficient of performance, COP, degradation due to condenser fouling; individually determining a second term of COP degradation due to condenser water flow reduction; individually determining a third term of COP degradation due to evaporator fouling; characterised by; determining a total COP degradation of the chiller with a summation of the first, second and third terms of COP degradations, generating an alert if the total COP degradation exceeds a predetermined threshold for a predetermined amount of time, wherein a low level alert is generated if a first threshold is exceeded and a high level alert is generated if a second threshold is exceeded, the second threshold being greater than the first threshold.