mhurhangee/ep-ind-claims huggingface dataset:
A bonding wire for a semiconductor device comprising: a Cu alloy core material optionally containing Pd, and a concentration of Pd contained in the Cu alloy core material is 0.05 to 1.2% by mass to the core material; and a Pd coating layer formed on a surface of the Cu alloy core material, wherein a thickness of the Pd coating layer is 0.015 to 0.150 μm; wherein the bonding wire contains at least one or more elements selected from As, Te, Sn, Sb, Bi and Se, a concentration of the elements in total is 0.1 to 100 ppm by mass relative to the entire wire, and Sn ≤ 10 ppm by mass; Sb ≤ 10 ppm by mass; Bi ≤ 1 ppm by mass; and Se ≤ 4.9 ppm by mass; wherein the bonding wire further optionally contains at least one or more elements selected from Ni, Zn, Rh, In, Ir, Pt, Ga and Ge, and a concentration of each of the elements is 0.011 to 1.2% by mass relative to the entire wire; wherein the bonding wire further optionally contains at least one or more elements selected from B, P, Mg, Ca and La, and a concentration of each of the elements is 1 to 100 ppm by mass relative to the entire wire, the balance of the bonding wire being Cu and inevitable impurities; wherein the Pd coating layer is measured as defined in the description. a Cu alloy core material optionally containing Pd, and a concentration of Pd contained in the Cu alloy core material is 0.05 to 1.2% by mass to the core material; and a Pd coating layer formed on a surface of the Cu alloy core material, wherein a thickness of the Pd coating layer is 0.015 to 0.150 μm; wherein the bonding wire contains at least one or more elements selected from As, Te, Sn, Sb, Bi and Se, a concentration of the elements in total is 0.1 to 100 ppm by mass relative to the entire wire, and Sn ≤ 10 ppm by mass; Sb ≤ 10 ppm by mass; Bi ≤ 1 ppm by mass; and Se ≤ 4.9 ppm by mass; wherein the bonding wire further optionally contains at least one or more elements selected from Ni, Zn, Rh, In, Ir, Pt, Ga and Ge, and a concentration of each of the elements is 0.011 to 1.2% by mass relative to the entire wire; wherein the bonding wire further optionally contains at least one or more elements selected from B, P, Mg, Ca and La, and a concentration of each of the elements is 1 to 100 ppm by mass relative to the entire wire, the balance of the bonding wire being Cu and inevitable impurities; wherein the Pd coating layer is measured as defined in the description.
Guide carriage for a linear rolling bearing, which guide carriage can be supported in a longitudinally movable manner, via at least one row of rollers, on a guide rail extending in a longitudinal direction, each roller row being assigned a separate rolling-surface part made from hardened steel and having a rolling surface for the load-transferring rolling of the rollers, the rolling-surface part being connected to a carrying body via an adhesive layer, characterized in that the adhesive layer is formed in an essentially planar manner on the rear side, facing away from the rolling surface, of the rolling-surface part, the rolling-surface part being accommodated in a recess of L-shaped cross section of the carrying body, the rolling-surface part having an essentially rectangular cross-sectional shape which is essentially constant over the entire length of the rolling-surface part.
A heat pump device, comprising an evaporator, a variable-speed compressor, an expansion valve, a condenser, a power electronics unit for controlling the variable-speed compressor, and a cooling unit for cooling the power electronics unit, wherein the cooling unit has at least one cooling duct for cooling the power electronics unit, a bypass which is arranged parallel to the at least one cooling duct and the power electronics unit and a setting unit (123, 124, 125, 126, 300) for setting a cooling medium volume flow rate through the bypass, wherein the cooling unit has a cooling control unit, which controls the cooling medium volume flow rate through the bypass and/or the at least one cooling duct as a function of a temperature of the power electronics unit, wherein the heat pump device is configured for warming heating and/or service water and the heating and/or service water represents the cooling medium of the cooling unit, wherein the cooling unit is configured as part of a heating circuit of the heat pump device, wherein the cooling unit comprises the heating return as the inflow and the heating flow as outflow, wherein a volume flow rate through the bypass flows through the condenser.
An aerosol-generating system comprising: an aerosol-generating device comprising a heater element; an aerosol-generating article comprising: a medicament source; and a volatile delivery enhancing compound source; and at least one resilient member (48, 50) provided in the aerosol-generating device or the aerosol-generating article and resiliently biased against the heater element; wherein at least one of the medicament source and the volatile delivery enhancing compound source contacts the at least one resilient member; and wherein the aerosol-generating system is configured to heat the medicament source and the volatile delivery enhancing compound source of the aerosol-generating article so that the medicament source has a higher temperature than the volatile delivery enhancing compound source. an aerosol-generating device comprising a heater element; an aerosol-generating article comprising: a medicament source; and a volatile delivery enhancing compound source; and a medicament source; and a volatile delivery enhancing compound source; and at least one resilient member (48, 50) provided in the aerosol-generating device or the aerosol-generating article and resiliently biased against the heater element; wherein at least one of the medicament source and the volatile delivery enhancing compound source contacts the at least one resilient member; and wherein the aerosol-generating system is configured to heat the medicament source and the volatile delivery enhancing compound source of the aerosol-generating article so that the medicament source has a higher temperature than the volatile delivery enhancing compound source.
Hinge for an item of furniture or a household appliance, comprising: a) a first hinge part and a second hinge part, which are pivotably connected to each other via a lever mechanism with seven joint axes and levers hinged thereto; b) wherein the first hinge part has a first web and the second hinge part has a second web, wherein the first hinge part can be fixed at the first web to a furniture body and the second hinge part can be fixed at the second web to a door, and the first web and the second web are arranged substantially parallel and spaced apart in a closed position of the hinge; c) and a cover element at least partially covers the lever mechanism on at least three sides to prevent engagement between the levers of the lever mechanism, characterized in that a plurality of cover plates (11, 12, 13) are integrally formed with the cover element, and the cover plates (11, 12, 13) arranged on one side of the lever mechanism can be pivoted relative to each other in a partially overlapping manner when the hinge is pivoted. a) a first hinge part and a second hinge part, which are pivotably connected to each other via a lever mechanism with seven joint axes and levers hinged thereto; b) wherein the first hinge part has a first web and the second hinge part has a second web, wherein the first hinge part can be fixed at the first web to a furniture body and the second hinge part can be fixed at the second web to a door, and the first web and the second web are arranged substantially parallel and spaced apart in a closed position of the hinge; c) and a cover element at least partially covers the lever mechanism on at least three sides to prevent engagement between the levers of the lever mechanism,
System controller for controlling a charging system which is provided for charging an electrical energy store, and an electrical generator and an internal combustion engine which is mechanically connected to the generator, having - a generator controller for controlling the generator, - an engine controller for controlling the internal combustion engine, - a transmission device for transmitting messages, wherein the engine controller is connected to the generator controller by means of the transmission device, - the engine controller is configured in such a way that a message can be generated which contains an indication of an operating state of the internal combustion engine, and this message can be sent to the generator controller via the transmission device, - the engine controller is also configured in such a way that a maximum power level of the internal combustion engine which can be output can be defined in a variable fashion as a function of at least one predefined parameter, the indication of the operation state of the internal combustion engine depending on this maximum power level of the internal combustion engine, and - the engine controller is configured in such a way that the maximum power level of the internal combustion engine can be defined as a function of the at least one predefined parameter in such a way that said maximum power level is higher than a rated power level which is defined for the internal combustion engine. - a generator controller for controlling the generator, - an engine controller for controlling the internal combustion engine, - a transmission device for transmitting messages, wherein the engine controller is connected to the generator controller by means of the transmission device, - the engine controller is configured in such a way that a message can be generated which contains an indication of an operating state of the internal combustion engine, and this message can be sent to the generator controller via the transmission device, - the engine controller is also configured in such a way that a maximum power level of the internal combustion engine which can be output can be defined in a variable fashion as a function of at least one predefined parameter, the indication of the operation state of the internal combustion engine depending on this maximum power level of the internal combustion engine, and - the engine controller is configured in such a way that the maximum power level of the internal combustion engine can be defined as a function of the at least one predefined parameter in such a way that said maximum power level is higher than a rated power level which is defined for the internal combustion engine.
A vibration ripper having a link structure with an improved vibration isolating function, which includes an outer body having an accommodating portion inside and a vibration body that is built in the outer body and has a mounting bracket formed thereunder so that a tool equipment can be attached and detached, characterized in that the vibration ripper comprising: a first vibroisolating body installed across the vibration body at a lower left portion of the vibration body; and a link device connecting the outer body and the first vibroisolating body in order to absorb vibration, wherein the link device includes a pair of parallel connection members in a state of being spaced apart from each other, a coupling hole for coupling the first vibroisolating body is formed on a left side of the connection member, and a second vibroisolating body coupled to the outer body is integrally installed on a right side of the connection member, wherein the left side of the pair of connection members is open so that a lower portion of the vibration body provided with the first vibroisolating body is inserted, and the right side thereof is coupled to a lower right portion of the outer body while being integrally provided with the second vibroisolating body. a first vibroisolating body installed across the vibration body at a lower left portion of the vibration body; and a link device connecting the outer body and the first vibroisolating body in order to absorb vibration, wherein the link device includes a pair of parallel connection members in a state of being spaced apart from each other, a coupling hole for coupling the first vibroisolating body is formed on a left side of the connection member, and a second vibroisolating body coupled to the outer body is integrally installed on a right side of the connection member, wherein the left side of the pair of connection members is open so that a lower portion of the vibration body provided with the first vibroisolating body is inserted, and the right side thereof is coupled to a lower right portion of the outer body while being integrally provided with the second vibroisolating body.
A method of operating a mass spectrometer to analyze a biological sample, comprising: temporally separating the biological sample into components; introducing peptide ions generated from a component of the biological sample into the mass spectrometer during an introduction period; fragmenting the peptide ions to form product ions; mass analyzing the product ions to acquire a product ion spectrum; and during the introduction period, using a programmed controller to perform: executing a search of a mass spectral database to attempt to identify a candidate peptide in the mass spectral database that matches the product ion spectrum, the mass spectral database containing product mass spectral information for candidate peptides, characterized by: while executing the search of the mass spectral database, monitoring an elapsed search time (t search), wherein if the elapsed search time exceeds a first maximum value, then the search is terminated, and upon identification of the candidate peptide that matches the product ion spectrum prior to the elapsed search time (t search) reaching the e first maximum value, causing the mass spectrometer to perform an action based on the identification. temporally separating the biological sample into components; introducing peptide ions generated from a component of the biological sample into the mass spectrometer during an introduction period; fragmenting the peptide ions to form product ions; mass analyzing the product ions to acquire a product ion spectrum; and during the introduction period, using a programmed controller to perform: executing a search of a mass spectral database to attempt to identify a candidate peptide in the mass spectral database that matches the product ion spectrum, the mass spectral database containing product mass spectral information for candidate peptides, characterized by: while executing the search of the mass spectral database, monitoring an elapsed search time (t search), wherein if the elapsed search time exceeds a first maximum value, then the search is terminated, and upon identification of the candidate peptide that matches the product ion spectrum prior to the elapsed search time (t search) reaching the e first maximum value, causing the mass spectrometer to perform an action based on the identification. while executing the search of the mass spectral database, monitoring an elapsed search time (t search), wherein if the elapsed search time exceeds a first maximum value, then the search is terminated, and upon identification of the candidate peptide that matches the product ion spectrum prior to the elapsed search time (t search) reaching the e first maximum value, causing the mass spectrometer to perform an action based on the identification.
A method for producing an organic compound having a sulfo group, which comprises bringing an organic compound having a fluorosulfonyl group into contact with subcritical water at from 200 to 320°C to convert the fluorosulfonyl group into a sulfo group.
A monoclonal antibody or a fragment containing an antigen binding site thereof, which: 1) specifically recognizes a human mortalin antigen; 2) has the function of being internalized by cancer cells, and 3) is capable of recognising both of the epitopes EVILVGGMT (SEQ ID NO: 10) and DLFGRAP (SEQ ID NO: 11). 1) specifically recognizes a human mortalin antigen; 2) has the function of being internalized by cancer cells, and 3) is capable of recognising both of the epitopes EVILVGGMT (SEQ ID NO: 10) and DLFGRAP (SEQ ID NO: 11).
An ophthalmic suspension comprising an ophthalmic active ingredient suspended in a formulation vehicle, wherein the ophthalmic active ingredient is present as particles that have D v90 < 5 μm and D v50 < 1 μm, and the formulation vehicle comprises a suspending agent and a non-ionic cellulose derivative.
An apparatus for identifying nerve tissue, the apparatus comprising: an elongate shaft having a distal region configured to be percutaneously deployed within a patient; and an active imaging structure disposed on the distal region, the active imaging structure configured to remotely image nerve tissue by exciting a signal in a nerve tissue from a percutaneous location and receiving the signal from a percutaneous location; wherein the active imaging structure includes one or more probes (112a, 112b); wherein the elongate shaft comprises a fixation element in the distal region, the fixation element having a collapsed configuration and an expanded configuration, wherein the fixation element is an expandable balloon, characterized in that the elongate shaft further comprises a cylindrical module disposed in the distal region, said cylindrical module being provided at an outer surface of the elongate shaft, wherein the one or more probes (112a, 112b) are disposed on said cylindrical module, wherein the cylindrical module is rotatable with respect to the fixation element and with respect to the elongated shaft, and the cylindrical module is disposed within a cavity of the balloon. an elongate shaft having a distal region configured to be percutaneously deployed within a patient; and an active imaging structure disposed on the distal region, the active imaging structure configured to remotely image nerve tissue by exciting a signal in a nerve tissue from a percutaneous location and receiving the signal from a percutaneous location; wherein the active imaging structure includes one or more probes (112a, 112b); wherein the elongate shaft comprises a fixation element in the distal region, the fixation element having a collapsed configuration and an expanded configuration, wherein the fixation element is an expandable balloon, characterized in that the elongate shaft further comprises a cylindrical module disposed in the distal region, said cylindrical module being provided at an outer surface of the elongate shaft, wherein the one or more probes (112a, 112b) are disposed on said cylindrical module, wherein the cylindrical module is rotatable with respect to the fixation element and with respect to the elongated shaft, and the cylindrical module is disposed within a cavity of the balloon.
Cutting device (10, 10', 10'') comprising: a transmission element which is provided for the eccentric driving of a rotatable cutting element, in particular of a saw ring, and a rotary shaft (20, 20', 20'') which is configured to pick up a rotary movement for driving the transmission element, wherein a section of the rotary shaft (20, 20', 20'') can be inserted in an interface of a spindle unit of a processing machine, and wherein the rotary shaft (20, 20', 20'') can be inserted in a hollow shaft cone of a spindle unit, characterised in that the cutting device is a ring saw.
A black particulate near-infrared reflective material of a perovskite type composite oxide represented by the following composition formula: xAeTiO 3-γ yAe'MnO 3-γ zAe"(Ti α Mn β)O 3-γ wherein Ae, Ae', and Ae" are each at least one alkaline earth metal element selected from magnesium, calcium, strontium, and barium, and may be the same or different from each other; Ti represents a titanium element; Mn represents a manganese element; O represents an oxygen element; + z = 1; x, y, and z are real numbers, 0 ≤ x < 1, 0 ≤ y < 1, 0 ≤ z < 1, and x + y α and β are real numbers, 0 < α < 1 and 0 < β < 1, and α + β = 1; and γ is a real number and 0 ≤ γ < 3; and wherein the black particulate near-infrared reflective material has a powder BET specific surface area in a range of 3.0 to 150 m 2 /g, a Hunter L value of 30 or less, a reflectance of 40% or more at a wavelength of 1200 nm, and a particle size in a range of 0.01 to 0.49 μm. Ae, Ae', and Ae" are each at least one alkaline earth metal element selected from magnesium, calcium, strontium, and barium, and may be the same or different from each other; Ti represents a titanium element; Mn represents a manganese element; O represents an oxygen element; + z = 1; x, y, and z are real numbers, 0 ≤ x < 1, 0 ≤ y < 1, 0 ≤ z < 1, and x + y α and β are real numbers, 0 < α < 1 and 0 < β < 1, and α + β = 1; and γ is a real number and 0 ≤ γ < 3; and wherein the black particulate near-infrared reflective material has a powder BET specific surface area in a range of 3.0 to 150 m 2 /g, a Hunter L value of 30 or less, a reflectance of 40% or more at a wavelength of 1200 nm, and a particle size in a range of 0.01 to 0.49 μm.
Electrical interface, in particular an interposer, comprising a first connection plane with two first contact surface pairs (19, 19a), each of which comprises a first and second contact surface (18, 20, 18a, 20a), and a second connection plane with two second contact surface pairs (23, 23a), each of which comprises a third and fourth contact surface (22, 24, 22a, 24a), wherein, for each of a first and second contact surface pair (18, 20, 18a, 20a), a first electrical connection (26, 26a) electrically connects the first contact surface (18, 18a) of the first connection plane with the third contact surface (22, 22a) of the second connection plane and a second electrical connection (28, 28a) electrically connects the second contact surface (20, 20a) of the first connection plane with the fourth contact surface (24, 24a) of the second connection plane, wherein the first electrical connection (26, 26a) between the first and third contact surface (18, 18a, 22, 22a) has a specified first geometric length and the second electrical connection (28, 28a) between the second and fourth contact surface (20, 20a, 24, 24a) has a specified second geometric length, the first and second geometric lengths being different, wherein the first and second contact surfaces (18, 20, 18a, 20a) of the two first contact surface pairs (19, 19a) on the first connection plane are arranged at the corners of a square such that a first and second contact surface (18, 20, 18a, 22a) of a first contact surface pair (19, 19a) are in each case arranged diagonally opposite one another, wherein the third and fourth contact surfaces (22, 24, 22a, 24a) of the two second contact surface pairs (23, 23a) on the second connection plane are arranged at the corners of a square such that a third and fourth contact surface (22, 24, 22a, 24a) of a second contact surface pair (23, 23a) are in each case arranged diagonally opposite one another.