mhurhangee/ep-ind-claims huggingface dataset:
Identification document comprising data arranged in a machine-readable zone, wherein the machine-readable zone is a machine-readable zone according to ICAO 9303, wherein the identification document comprises a chip, wherein the data is intended for generating an authorization signal to read out a chip content so that the authorization signal is generated based on the data, wherein the authorization signal indicates an authorization to the chip for a document reader to read out the chip content, characterized by a barcode which provides a duplicate of the data arranged in the machine-readable zone.
A compound and salts and solvates thereof, wherein the compound is selected from: and wherein q is selected from 0, 1, 2, 3, 4, 5 and 6; p is 0 or 1; L is an alkylene chain containing from 1to 12 carbon atoms; Y 1 is N or CH; Y 2 is N or CH; and wherein at least one of Y 1 and Y 2 is CH; Y 5 is selected from CH and N; Z 1 is selected from O, S, NH and N-CH 3; Z 2 is selected from CH and N; and Z 3 is selected from S and O; Z 4 is selected from CH and N; R 22 is selected from (CH 2) j CO 2 H, (CH 2) j CO 2 C 1-6 alkyl, (CH 2) j NR 11 R 12 and C(=O)-NH-C 6 H 4 -(CH 2) j - R 18; R 18 is selected from CO 2 R 11 and NR 11 R 12; R 19 is selected from H and (CH 2) t -NR 20 R 21; j and t are independently selected from an integer from o to 6; and R 11, R 12, R 20, R 21 and R 23 are independently selected from H and C 1-6 alkyl. and either: (i) R 5 and R 6 together form a double bond; (ii) R 5 is H and R 6 is OH; or (iii) R 5 is H and R 6 is OC 1-6 alkyl; with the proviso that when the compound is and p is o, that Z 1 is selected from O and S. wherein q is selected from 0, 1, 2, 3, 4, 5 and 6; p is 0 or 1; L is an alkylene chain containing from 1to 12 carbon atoms; Y 1 is N or CH; Y 2 is N or CH; and wherein at least one of Y 1 and Y 2 is CH; Y 5 is selected from CH and N; Z 1 is selected from O, S, NH and N-CH 3; Z 2 is selected from CH and N; and Z 3 is selected from S and O; Z 4 is selected from CH and N; R 22 is selected from (CH 2) j CO 2 H, (CH 2) j CO 2 C 1-6 alkyl, (CH 2) j NR 11 R 12 and C(=O)-NH-C 6 H 4 -(CH 2) j - R 18; R 18 is selected from CO 2 R 11 and NR 11 R 12; R 19 is selected from H and (CH 2) t -NR 20 R 21; j and t are independently selected from an integer from o to 6; and R 11, R 12, R 20, R 21 and R 23 are independently selected from H and C 1-6 alkyl. and either: (i) R 5 and R 6 together form a double bond; (ii) R 5 is H and R 6 is OH; or (iii) R 5 is H and R 6 is OC 1-6 alkyl; (i) R 5 and R 6 together form a double bond; (ii) R 5 is H and R 6 is OH; or (iii) R 5 is H and R 6 is OC 1-6 alkyl; with the proviso that when the compound is and p is o, that Z 1 is selected from O and S.
A method for cleaning a semiconductor substrate having copper wiring by use of a cleaning liquid composition, wherein the cleaning liquid composition comprises one or more basic compound containing no metal, and one or more phosphonic acid-based chelating agent selected from glycine- N, N- bis(methylenephosphonic acid) (glyphosine), nitrilotris(methylenephosphonic acid) (NTMP), or a salt thereof, and has a hydrogen ion concentration (pH) of 8 to 10, with the proviso that the cleaning liquid composition does not comprise a reducing agent and a surfactant.
A door comprising: - a quadrilateral frame defining a perimeter for the door and comprising a first diagonal guide which extends diagonally inside the perimeter of the door and which comprises an inner cavity, and - a latch comprising a first projection and being provided movably into the inner cavity of the first diagonal guide of the frame, the latch being configured to be manipulated between: • a locking state, in which at least a distal portion of the first projection of the latch protrudes outside said perimeter, and • a released state, in which the distal portion is flush with or inside said perimeter, and wherein the first diagonal guide is configured to guide the latch between the locking state and the released state by allowing deviation of the latch along a path diagonal to the quadrilateral shape of the frame, whereby the door comprises a holding mechanism for holding the latch in the released state or locking state or selectively both, the holding mechanism comprising: - a first holding opening provided to the first diagonal guide, and - a holding protrusion, characterised in that said holding protrusion is provided to the first projection of the latch and configured to be resiliently deviated in a dimension perpendicular to the main extending dimension of the first projection so as to releasably engage the first opening, when the latch is in the released state. - a quadrilateral frame defining a perimeter for the door and comprising a first diagonal guide which extends diagonally inside the perimeter of the door and which comprises an inner cavity, and - a latch comprising a first projection and being provided movably into the inner cavity of the first diagonal guide of the frame, the latch being configured to be manipulated between: • a locking state, in which at least a distal portion of the first projection of the latch protrudes outside said perimeter, and • a released state, in which the distal portion is flush with or inside said perimeter, and • a locking state, in which at least a distal portion of the first projection of the latch protrudes outside said perimeter, and • a released state, in which the distal portion is flush with or inside said perimeter, and - a first holding opening provided to the first diagonal guide, and - a holding protrusion,
Device for defatting a full-thickness skin graft, having a cutting means which is configured and arranged for separating a layer of subcutaneous fatty tissue located on the full-thickness skin graft, wherein the device has a pull roller which is arranged at a distance from a cutting edge of the cutting means across a gap and is configured to feed the full-thickness skin graft to the cutting means by rotation of the pull roller, wherein the cutting means comprises a blade having the cutting edge, which blade is attached to a blade holder, characterized in that the cutting edge of the blade is spaced apart from the axis of rotation of the pull roller with a cutting edge spacing and a closest portion of the blade is spaced a minimum distance from the axis of rotation of the pull roller, the cutting edge spacing being greater than the minimum distance.
An implantable article comprising a first material having a microstructure of fibrils wherein a substantial portion of said fibrils are in a substantially bent configuration and wherein a substantial portion of said bent fibrils are constrained in the substantially bent configuration by a coating of a fracturable material applied to the first material and which is different from the first material, wherein said article is adapted to be extended during normal use of said article in at least one dimension by a tensile force applied in a direction to cause fracturing of the fracturable material and straightening of the bent fibrils.
A system, comprising: a processor; and a memory communicatively coupled to the processor and storing instructions that, when executed by the processor, perform operations, comprising: receiving an ambient air temperature reading from an ambient air temperature sensor (110, 215) associated with a vehicle; determining a cooling capacity of an intercooler (155, 260) associated with the vehicle; determining an ambient air flow rate through the intercooler associated with the vehicle; determining a cooling flow rate of the intercooler associated with the vehicle; determining an estimated ambient air temperature based, at least in part, on the cooling capacity of the intercooler, the ambient air flow rate of the intercooler and the cooling flow rate of the intercooler; determining a difference between the ambient air temperature reading and the estimated ambient air temperature; and triggering an error notification for the vehicle when the determined difference between the ambient air temperature reading and the estimated ambient air temperature is above a threshold. a processor; and a memory communicatively coupled to the processor and storing instructions that, when executed by the processor, perform operations, comprising: receiving an ambient air temperature reading from an ambient air temperature sensor (110, 215) associated with a vehicle; determining a cooling capacity of an intercooler (155, 260) associated with the vehicle; determining an ambient air flow rate through the intercooler associated with the vehicle; determining a cooling flow rate of the intercooler associated with the vehicle; determining an estimated ambient air temperature based, at least in part, on the cooling capacity of the intercooler, the ambient air flow rate of the intercooler and the cooling flow rate of the intercooler; determining a difference between the ambient air temperature reading and the estimated ambient air temperature; and triggering an error notification for the vehicle when the determined difference between the ambient air temperature reading and the estimated ambient air temperature is above a threshold. receiving an ambient air temperature reading from an ambient air temperature sensor (110, 215) associated with a vehicle; determining a cooling capacity of an intercooler (155, 260) associated with the vehicle; determining an ambient air flow rate through the intercooler associated with the vehicle; determining a cooling flow rate of the intercooler associated with the vehicle; determining an estimated ambient air temperature based, at least in part, on the cooling capacity of the intercooler, the ambient air flow rate of the intercooler and the cooling flow rate of the intercooler; determining a difference between the ambient air temperature reading and the estimated ambient air temperature; and triggering an error notification for the vehicle when the determined difference between the ambient air temperature reading and the estimated ambient air temperature is above a threshold.
A method of ensuring proper operation of a power supply unit in an electronic device including a system fan and a controller, the power supply unit including an internal fan and an AC input, wherein the system fan is located in parallel with the power supply unit, wherein the method is characterized by the following steps: monitoring the AC input by the controller and determining whether AC power is input to the AC input; when AC power is input to the AC input, executing a software protection routine by the controller for reducing the fan power of the system fan for a short period to generate air flow at a level sufficient to allow operation of the internal fan; and when the internal fan starts, restoring the fan power of the system fan to a normal level to generate air flow sufficient to cool the electronic device. monitoring the AC input by the controller and determining whether AC power is input to the AC input; when AC power is input to the AC input, executing a software protection routine by the controller for reducing the fan power of the system fan for a short period to generate air flow at a level sufficient to allow operation of the internal fan; and when the internal fan starts, restoring the fan power of the system fan to a normal level to generate air flow sufficient to cool the electronic device.
A process for preparing an antibody-maytansinoid conjugate comprising the steps of: (a) contacting an antibody with a bifunctional crosslinking reagent to covalently attach a linker to the antibody and thereby prepare a first mixture comprising antibodies having linkers bound thereto, (b) subjecting the first mixture to adsorptive chromatography and thereby prepare a purified first mixture of antibodies having linkers bound thereto, (c) conjugating a maytansinoid to the antibodies having linkers bound thereto in the purified first mixture by reacting the antibodies having linkers bound thereto with a maytansinoid in a solution having a pH of 4 to 9 to prepare a second mixture comprising (i) antibodies chemically coupled through the linker to the maytansinoid, (ii) free may tansinoids, and (iii) reaction by-products, and (d) subjecting the second mixture to adsorptive chromatography to purify the antibodies chemically coupled through the linkers to the maytansinoid from the other components of the second mixture and thereby prepare a purified second mixture of antibodies chemically coupled through the linkers to the maytansinoid. (a) contacting an antibody with a bifunctional crosslinking reagent to covalently attach a linker to the antibody and thereby prepare a first mixture comprising antibodies having linkers bound thereto, (b) subjecting the first mixture to adsorptive chromatography and thereby prepare a purified first mixture of antibodies having linkers bound thereto, (c) conjugating a maytansinoid to the antibodies having linkers bound thereto in the purified first mixture by reacting the antibodies having linkers bound thereto with a maytansinoid in a solution having a pH of 4 to 9 to prepare a second mixture comprising (i) antibodies chemically coupled through the linker to the maytansinoid, (ii) free may tansinoids, and (iii) reaction by-products, and (d) subjecting the second mixture to adsorptive chromatography to purify the antibodies chemically coupled through the linkers to the maytansinoid from the other components of the second mixture and thereby prepare a purified second mixture of antibodies chemically coupled through the linkers to the maytansinoid.
An electronic device comprising: a coaxial cable connected to an antenna; and at least one conductive body having a strip-like shape and electrically coupled to an external conductor of the coaxial cable, one end of the conductive body not being directly connected to a ground connected to the coaxial cable, wherein the at least one conductive body is located at a position overlapping the coaxial cable in plan view and is electrically coupled to the external conductor across a covering of the coaxial cable through capacitance coupling, and wherein the at least one conductive body extends in a direction substantially orthogonal to the extending direction of the coaxial cable at a position where the at least one conductive body is coupled to the coaxial cable. a coaxial cable connected to an antenna; and at least one conductive body having a strip-like shape and electrically coupled to an external conductor of the coaxial cable, one end of the conductive body not being directly connected to a ground connected to the coaxial cable, wherein the at least one conductive body is located at a position overlapping the coaxial cable in plan view and is electrically coupled to the external conductor across a covering of the coaxial cable through capacitance coupling, and wherein the at least one conductive body extends in a direction substantially orthogonal to the extending direction of the coaxial cable at a position where the at least one conductive body is coupled to the coaxial cable.
A wireless docking system comprising: a dockee device (110, 210) and a docking station, where the docking station comprises: first means for establishing a first network connection for connecting to the dockee device (110, 210); and second means for establishing a second network connection for connecting to a wireless network access point (130, 230); wherein the dockee device has first information for accessing the wireless network access point (130, 230) via an initial connection between the dockee device (110, 210, 510) and the wireless network access point (130, 230) for first traffic between the dockee device (110, 210) and the wireless network access point (130, 230); characterised in that the docking station is, for taking over the initial connection, configured to: in a first step to establish a first secure wireless connection between the docking station and the dockee for receiving from the dockee device (110, 210) the first information, and in a second step establishing a second secure wireless connection between the docking station and the wireless network access point by connecting to the access point (130, 230) using the first information; the docking station further configured to enable a tunneling connection for the first traffic via the first secure wireless connection. first means for establishing a first network connection for connecting to the dockee device (110, 210); and second means for establishing a second network connection for connecting to a wireless network access point (130, 230); wherein the dockee device has first information for accessing the wireless network access point (130, 230) via an initial connection between the dockee device (110, 210, 510) and the wireless network access point (130, 230) for first traffic between the dockee device (110, 210) and the wireless network access point (130, 230); characterised in that the docking station is, for taking over the initial connection, configured to: in a first step to establish a first secure wireless connection between the docking station and the dockee for receiving from the dockee device (110, 210) the first information, and in a second step establishing a second secure wireless connection between the docking station and the wireless network access point by connecting to the access point (130, 230) using the first information; the docking station further configured to enable a tunneling connection for the first traffic via the first secure wireless connection. in a first step to establish a first secure wireless connection between the docking station and the dockee for receiving from the dockee device (110, 210) the first information, and in a second step establishing a second secure wireless connection between the docking station and the wireless network access point by connecting to the access point (130, 230) using the first information; the docking station further configured to enable a tunneling connection for the first traffic via the first secure wireless connection.
Device for controlling and/or regulating speeds of an electric vehicle, in particular an electric vehicle, comprising a means of influencing a unit of speed for an electric motor of an electric vehicle, for controlling and/or regulating the unit of speed, a calculating unit of speed, a means of receiving for: the motion signals of the motion of the wheel, the first signal transmitter being positioned on a spokes of the wheel of the electric vehicle, the first signal transmitter comprising a magnetic medium and transmitting motion signals with magnetic fields, and the first signal transmitter being provided substantially outside the field range of the receiving medium and comprising a permanent magnet, a second signaling device for time-dependent signals, appropriately constructed with movements of the first signaling device, and a amplification device, which provides amplification signals to amplify the signals of the second signaling device, so that the resulting switching pattern of the receiving device affects the unit of calculation so that a given limit speed in the sense of the unit of calculation cannot be exceeded during given periods, whereby the agent may exceed the limit speed by means of a real speed of the unit of speed for an electric motor of the electric vehicle, the first signalling device being along the radius is to be positioned substantially outside the field range of the receiving medium, characterised by the fact that the reinforcement medium comprises a magnetic medium with the signals of the second signaling medium parallel, equally oriented magnetic field lines.
A hot rolled ferritic stainless steel sheet consisting of, by mass%, C: 0.015% or less, Si: 0.01 to 0.4%, Mn: 0.01 to 0.8%, P: 0.04% or less, S: 0.01% or less, Cr: 14.0 to less than 18.0%, Ni: 0.05 to 1%, Nb: 0.3 to 0.6%, Ti: 0.05% or less, N: 0.020% or less, Al: 0.10% or less, and B: 0.0002 to 0.0020%; optionally one or more of Mo: 1.1% or less, Sn: 0.005 to 0.1%, Cu: 0.05 to 1.5%, V: 1% or less, and W: 1% or less; and a balance of Fe and unavoidable impurities, wherein the contents of Nb, C, and N satisfy Nb/(C+N) ≥ 16, a Charpy impact value at 0°C of the steel sheet is 10 J/cm 2 or more, and a thickness of the steel sheet is 5.0 to 9.0 mm.
An article of footwear comprising: an upper; a plate having a top surface facing the upper and a bottom surface formed on an opposite side than the top surface, the plate extending from a first end in a forefoot region to a second end in a heel region; a first cushioning element having an upper surface attached to the bottom surface of the plate in the forefoot region and including a first side shield extending from the upper surface and along a medial side of the upper and a second side shield extending from the upper surface and along a lateral side of the upper; and one or more fluid-filled bladders each at least partially surrounded by the first cushioning element in the forefoot region and having a top surface attached to the bottom surface of the plate, wherein the first cushioning element includes one or more apertures (234a, 234b) each configured to receive a corresponding one of the one or more fluid-filled bladders, the one or more apertures (234a, 234b) being formed through the entire thickness, i.e., from the top surface to the bottom surface. an upper; a plate having a top surface facing the upper and a bottom surface formed on an opposite side than the top surface, the plate extending from a first end in a forefoot region to a second end in a heel region; a first cushioning element having an upper surface attached to the bottom surface of the plate in the forefoot region and including a first side shield extending from the upper surface and along a medial side of the upper and a second side shield extending from the upper surface and along a lateral side of the upper; and one or more fluid-filled bladders each at least partially surrounded by the first cushioning element in the forefoot region and having a top surface attached to the bottom surface of the plate, wherein the first cushioning element includes one or more apertures (234a, 234b) each configured to receive a corresponding one of the one or more fluid-filled bladders, the one or more apertures (234a, 234b) being formed through the entire thickness, i.e., from the top surface to the bottom surface.
A dressing comprising: - a face for application to a wound; - an absorbent structure for absorbing a liquid discharged from the wound; - an intermediate structure located between the application face and the absorbent structure and arranged to promote diffusion of the liquid from the application face toward one or more admission zones, of restricted extent, of the absorbent structure; and - a detection system sensitive to the extent of the absorbent structure wetted by the liquid having penetrated into said structure via the admission zone(s). - a face for application to a wound; - an absorbent structure for absorbing a liquid discharged from the wound; - an intermediate structure located between the application face and the absorbent structure and arranged to promote diffusion of the liquid from the application face toward one or more admission zones, of restricted extent, of the absorbent structure; and - a detection system sensitive to the extent of the absorbent structure wetted by the liquid having penetrated into said structure via the admission zone(s).