mhurhangee/ep-ind-claims huggingface dataset:
System for recording and monitoring health and physical development of live fish, comprising: - an aquaculture cage, - at least an imaging device adapted to image a recording area localized under water within the cage, the recording area being formed to allow fish to swim through it, - a data processor, and a memory unit, wherein the data processor is adapted to analyse images from the imaging device and identify features of the fish, which features characterize individuals, health condition thereof, and physical development thereof, and store the features in the memory unit, and to compare features of the fish with characteristics stored in the memory unit for the same individual, and identify differences of the health condition and growth of the same individual over time. - an aquaculture cage, - at least an imaging device adapted to image a recording area localized under water within the cage, the recording area being formed to allow fish to swim through it, - a data processor, and a memory unit,
A respiratory apparatus comprising: a blower driven by a motor to generate a flow of breathable gas, at least one sensor (4270; 4272; 4274; 4276; 4278) configured to provide at least one input signal indicative of at least one of a physical and system parameter, a microprocessor configured to provide executable instructions to control the motor, and characterized in that the respiratory apparatus further comprises: a fault mitigation integrated circuit separate from the microprocessor and in communication with the motor and the microprocessor, the fault mitigation integrated circuit configured to: receive the at least one input signal from the at least one sensor, detect a fault based on the received at least one input signal, and generate an output signal to stop the motor based on the detected fault, wherein the fault mitigation integrated circuit is configured to monitor a motor current and/or a motor bus voltage. a blower driven by a motor to generate a flow of breathable gas, at least one sensor (4270; 4272; 4274; 4276; 4278) configured to provide at least one input signal indicative of at least one of a physical and system parameter, a microprocessor configured to provide executable instructions to control the motor, and characterized in that the respiratory apparatus further comprises: a fault mitigation integrated circuit separate from the microprocessor and in communication with the motor and the microprocessor, the fault mitigation integrated circuit configured to: receive the at least one input signal from the at least one sensor, detect a fault based on the received at least one input signal, and generate an output signal to stop the motor based on the detected fault, wherein the fault mitigation integrated circuit is configured to monitor a motor current and/or a motor bus voltage. a fault mitigation integrated circuit separate from the microprocessor and in communication with the motor and the microprocessor, the fault mitigation integrated circuit configured to: receive the at least one input signal from the at least one sensor, detect a fault based on the received at least one input signal, and generate an output signal to stop the motor based on the detected fault, receive the at least one input signal from the at least one sensor, detect a fault based on the received at least one input signal, and generate an output signal to stop the motor based on the detected fault, wherein the fault mitigation integrated circuit is configured to monitor a motor current and/or a motor bus voltage.
A safety component for controlling movements of machines, which movements are provided by a fluid system, which safety component is arranged by means of at least two digital valve group, which safety component control valve has means for providing safety function and means for providing functional property, such as work function characterised in that the safety component comprises a control valve that comprises two digital valve groups for each movement direction and that the safety component is controlled substantially simultaneously by one digital valve group (DV1; DV4) for work side flow, in which one digital valve group provides for the control of work movement and one digital valve group provides for control of return movement and one digital valve group (DV2; DV3) for the return side flow back to the tank.
Method for operating a drone navigating within an arena delimited by boundaries, the navigation of the drone in the arena being ruled by a navigation program setting the navigation parameters of the drone to ensure the drone follows a calculated trajectory, the method comprising a step of setting the navigation program to adapt the navigation parameters of the drone to an impact between the drone and an object placed in the arena, the method being characterized in that the setting of the navigation parameters of the drone in the navigation program depends on the object impacting the drone, the setting step comprising implementing a virtual impact setup in the navigation program for adjusting the navigation parameters of the drone to an impact between the drone and a virtual object, and implementing a real impact setup in the navigation program for adjusting the navigation parameters of the drone to an impact between the drone and a physical object. the method comprising a step of setting the navigation program to adapt the navigation parameters of the drone to an impact between the drone and an object placed in the arena, the method being characterized in that the setting of the navigation parameters of the drone in the navigation program depends on the object impacting the drone, the setting step comprising implementing a virtual impact setup in the navigation program for adjusting the navigation parameters of the drone to an impact between the drone and a virtual object, and implementing a real impact setup in the navigation program for adjusting the navigation parameters of the drone to an impact between the drone and a physical object.
Use of a lamp for curing an adhesive during eyelash extension, wherein the lamp comprises at least one light source that emits light in the wavelength range of 300 nm to 700 nm and the light source is a light-emitting diode, and a power supply and/or a connection for a power supply, and the lamp has a foot-operated switch configured such that the light source can be controlled by the switch, wherein the light source is arranged at the end of a flexible semi-rigid arm, characterized in that the flexible semi-rigid arm can be brought into various positions by manual bending and that the lamp comprises a cuff allowing the lamp to be attached to a wrist, upper arm, or forearm.
A method for producing an insulation system, in particular a thermal insulation system, having a single or multi-layer insulating layer comprising a single or multi-layer insulating layer, wherein the insulating elements are secured to a subsurface by the customer in one or a plurality of layers and a cover made up of a non-combustible or at least hardly inflammable material, particularly in the form of a woven fabric, knitted fabric, braided fabric, non-woven material or film is attached externally to the front of the insulating elements and covering at least a partial region of the insulating layer, characterized in that the cover for forming a temporary fire-protection device is attached during production of the insulating system, at least in the region of a façade opening, particularly in the region of a ledge and/or a lintel of a façade opening and/or at least in the region of at least one insulating element which is made of a noncombustible insulating material to form a fire barrier, wherein the cover is detachably secured to the base and/or to the insulating layer with the help of fastening means and removed again shortly before the application of a single or multi-course plaster layer.
An optical sheet comprising: a specific wavelength absorption layer that includes a bisphenol type polycarbonate having a skeleton derived from bisphenol as a main material and a light absorbing agent that absorbs light of a specific wavelength out of light in a wavelength range of 350 nm to 740 nm, wherein a content of the light absorbing agent in the specific wavelength absorption layer is 0.001 wt% to 5 wt%, wherein the polycarbonate has a viscosity average molecular weight Mv of 23,000 to 27,500, being characterized in that the polycarbonate has a water absorption rate of 0.04% to 0.15% measured by Aquatrac 3E, and wherein the polycarbonate has a melt flow rate of 3 g/10 min to 30 g/10 min measured in accordance with JIS K7210. a specific wavelength absorption layer that includes a bisphenol type polycarbonate having a skeleton derived from bisphenol as a main material and a light absorbing agent that absorbs light of a specific wavelength out of light in a wavelength range of 350 nm to 740 nm, wherein a content of the light absorbing agent in the specific wavelength absorption layer is 0.001 wt% to 5 wt%, wherein the polycarbonate has a viscosity average molecular weight Mv of 23,000 to 27,500, being characterized in that the polycarbonate has a water absorption rate of 0.04% to 0.15% measured by Aquatrac 3E, and wherein the polycarbonate has a melt flow rate of 3 g/10 min to 30 g/10 min measured in accordance with JIS K7210.
A method comprising: receiving, by a circuit, elements of a diagonal of a matrix that are positioned in a first vector; inserting, by the circuit, the received elements of the diagonal in a second vector in an order that is a reverse of the order of the elements in the first vector; counting, by at least one counter of the circuit, a predetermined number of positions; and generating, by the circuit, a third vector by placing the elements of the second vector in the third vector in an order that is a rotation of the elements of the diagonal by the predetermined number of positions. receiving, by a circuit, elements of a diagonal of a matrix that are positioned in a first vector; inserting, by the circuit, the received elements of the diagonal in a second vector in an order that is a reverse of the order of the elements in the first vector; counting, by at least one counter of the circuit, a predetermined number of positions; and generating, by the circuit, a third vector by placing the elements of the second vector in the third vector in an order that is a rotation of the elements of the diagonal by the predetermined number of positions.
An electric compressor (65, 75, 85) comprising: a housing that accommodates a compressor and an electric motor that drives the compressor; an inverter device including a circuit substrate on which an electronic component is mounted; an accommodation casing including an accommodation portion body provided on a side surface of the housing to accommodate the inverter device, a substrate support portion that protrudes to an inside of the accommodation portion body to support one surface of the circuit substrate, and a cover member fixed to the accommodation portion body to close an opening of the accommodation portion body; a bolt which is fastened to the substrate support portion to restrict a position of the circuit substrate with respect to the substrate support portion, and in which one surface of a head facing an inner surface of the cover member is flat; and a first vibration isolation member that is disposed between the one surface of the head and the inner surface of the cover member and that is bonded to the one surface of the head and to the inner surface of the cover member, characterized in that the head is provided with a screw hole, and a screw is provided that penetrates through the cover member and through the first vibration isolation member from outside the cover member to be screwed into the screw hole. a housing that accommodates a compressor and an electric motor that drives the compressor; an inverter device including a circuit substrate on which an electronic component is mounted; an accommodation casing including an accommodation portion body provided on a side surface of the housing to accommodate the inverter device, a substrate support portion that protrudes to an inside of the accommodation portion body to support one surface of the circuit substrate, and a cover member fixed to the accommodation portion body to close an opening of the accommodation portion body; a bolt which is fastened to the substrate support portion to restrict a position of the circuit substrate with respect to the substrate support portion, and in which one surface of a head facing an inner surface of the cover member is flat; and a first vibration isolation member that is disposed between the one surface of the head and the inner surface of the cover member and that is bonded to the one surface of the head and to the inner surface of the cover member, characterized in that the head is provided with a screw hole, and a screw is provided that penetrates through the cover member and through the first vibration isolation member from outside the cover member to be screwed into the screw hole.
A fitting arrangement for windows, doors and the like, in particular a door lock or a window gear, comprising a housing and a reservoir having volatile corrosion inhibitors, characterized in that the reservoir at least regionally surrounds the housing.
A method for melting melting stock, such as glass, in a furnace, which is implemented as an end-port furnace, two ports being provided in a front side of the furnace, which are alternately operated as the burner port and exhaust gas port, a fuel and an oxidizer being supplied to the burner port and being caused to react and the resulting combustion gases flowing along an essentially U-shaped main flow direction through the furnace to the exhaust gas port, in relation to the main flow direction, characterized by at least one fuel-rich gas stream being introduced into the furnace downstream from the burner port, and at least one oxygen containing gas stream being introduced into the furnace downstream from the point of the introduction of the fuel-rich gas stream(s) (20; 22).
A safety windscreen assembly comprising: - a windscreen panel; - a support arm (101; 301) to support the windscreen panel, the support arm (101; 301) comprising a first arm portion (12; 312) configured to be attached to a motor vehicle, and a second arm portion (13; 313) attached to the windscreen panel, said motor vehicle being a vehicle provided with a steering handlebar and with a seat astride which a driver may sit; - at least one sacrificial coupling element (14; 324) to couple the second arm portion (13; 313) with the first arm portion (12; 312) so that the second arm portion (13; 313) is adapted to pass in a breaking configuration with respect to said first arm portion (13; 313) when said windscreen panel is pushed forward by an impact force higher than a predetermined threshold value; characterized in that the first arm portion and the second arm portion are pivotally connected to each other by means of a hinge, and wherein said sacrificial coupling element connects the first arm portion and the second arm portion together over said hinge. - a windscreen panel; - a support arm (101; 301) to support the windscreen panel, the support arm (101; 301) comprising a first arm portion (12; 312) configured to be attached to a motor vehicle, and a second arm portion (13; 313) attached to the windscreen panel, said motor vehicle being a vehicle provided with a steering handlebar and with a seat astride which a driver may sit; - at least one sacrificial coupling element (14; 324) to couple the second arm portion (13; 313) with the first arm portion (12; 312) so that the second arm portion (13; 313) is adapted to pass in a breaking configuration with respect to said first arm portion (13; 313) when said windscreen panel is pushed forward by an impact force higher than a predetermined threshold value; characterized in that the first arm portion and the second arm portion are pivotally connected to each other by means of a hinge, and wherein said sacrificial coupling element connects the first arm portion and the second arm portion together over said hinge.
A cold-rolled non-oriented electrical steel sheet having a chemical composition containing, in mass%: C: 0.05% or less; Si: 1.0 % or more and 5.0% or less; Al: 0.1% or more and 3.0% or less; Mn: 0.1% or more and 2.0% or less; P: 0.2% or less; S: 0.005% or less; N: 0.005% or less; O: 0.01 % or less, optionally, one or more of Sn and Sb: 0.01% or more and 0.2% or less in total; optionally, one or more of Ca, Mg, and REM: 0.0005% or more and 0.010% or less in total; optionally, Cr: 0.1% or more and 10% or less; optionally, one or more of Ti, Nb, V, and Zr: 0.01% or more and 1.0% or less in total; with the balance consisting of Fe and incidental impurities, wherein a sheet thickness is less 0.30 mm, and arithmetic mean roughness Ra of a steel substrate surface at cutoff wavelength Ac = 20 μm is 0.2 μm or less, where the measurement of the surface roughness is performed as defined in JIS B 0601, JIS B 0632, JIS B 0633, and JIS B0651. C: 0.05% or less; Si: 1.0 % or more and 5.0% or less; Al: 0.1% or more and 3.0% or less; Mn: 0.1% or more and 2.0% or less; P: 0.2% or less; S: 0.005% or less; N: 0.005% or less; O: 0.01 % or less, optionally, one or more of Sn and Sb: 0.01% or more and 0.2% or less in total; optionally, one or more of Ca, Mg, and REM: 0.0005% or more and 0.010% or less in total; optionally, Cr: 0.1% or more and 10% or less; optionally, one or more of Ti, Nb, V, and Zr: 0.01% or more and 1.0% or less in total; with the balance consisting of Fe and incidental impurities, wherein a sheet thickness is less 0.30 mm, and arithmetic mean roughness Ra of a steel substrate surface at cutoff wavelength Ac = 20 μm is 0.2 μm or less, where the measurement of the surface roughness is performed as defined in JIS B 0601, JIS B 0632, JIS B 0633, and JIS B0651.
A computer-implemented method comprising: receiving, by a service provider system following a multifactor authentication for pre-authenticating a client device seeking access to call center services offered by the service provider using first authentication information, a support request to access a service provider application executing the call center services; in response to the support request, sending to the client device by the service provider, a request for second authentication information of a contactless card; receiving, by the service provider system from the client device, the second authentication information including a cryptogram from a contactless card via the client device; obtaining a validation of the cryptogram based on an authentication process executed by the service provider system; receiving by the service provider system an incoming call from the client device, wherein the incoming call has appended at least a portion of a pre-authentication number that includes a unique number associated with the pre-authentication of the client device, the pre-authentication number indicating the client device and the incoming call are pre-authenticated; filtering, by the service provider system, the incoming call for the pre-authentication number; and based on the incoming call being pre-authenticated, advancing the incoming call to a position in a call handling queue that bypasses an authentication queue. receiving, by a service provider system following a multifactor authentication for pre-authenticating a client device seeking access to call center services offered by the service provider using first authentication information, a support request to access a service provider application executing the call center services; in response to the support request, sending to the client device by the service provider, a request for second authentication information of a contactless card; receiving, by the service provider system from the client device, the second authentication information including a cryptogram from a contactless card via the client device; obtaining a validation of the cryptogram based on an authentication process executed by the service provider system; receiving by the service provider system an incoming call from the client device, wherein the incoming call has appended at least a portion of a pre-authentication number that includes a unique number associated with the pre-authentication of the client device, the pre-authentication number indicating the client device and the incoming call are pre-authenticated; filtering, by the service provider system, the incoming call for the pre-authentication number; and based on the incoming call being pre-authenticated, advancing the incoming call to a position in a call handling queue that bypasses an authentication queue.
Device for sanitizing at least one indoor or outdoor unit of an air conditioning system comprising a source of sanitizing fluid (2, 3), means for the controlled delivery (6, 7) of at least one jet of sanitizing fluid, suctioning means to generate at least one suction flow, and at least one suction opening shaped so as to direct said suction flow towards a determined direction with respect to the direction of said at least one jet of sanitizing fluid characterized in that said at least one suction opening is sized so as to be smaller than said unit of the conditioning system to be sanitized in order to be moved from a first portion of said unit towards at least one second portion of the same unit.
A method for manufacturing a silicon nitrogenous film comprising: (i) applying a silicon nitrogenous film forming composition comprising a polysilazane and a solvent above a substrate to form a coating film, (ii) irradiating an electron beam onto the coating film under a non-oxidizing atmosphere, (iii) at least one process selected from the group consisting of (a) irradiating a vacuum ultra-violet light onto the electron beam irradiated coating film under a non-oxidizing atmosphere and (b) plasma processing onto the electron beam irradiated coating film, and (iv) heating the treated-coating film of step (iii) under a non-oxidizing atmosphere. (i) applying a silicon nitrogenous film forming composition comprising a polysilazane and a solvent above a substrate to form a coating film, (ii) irradiating an electron beam onto the coating film under a non-oxidizing atmosphere, (iii) at least one process selected from the group consisting of (a) irradiating a vacuum ultra-violet light onto the electron beam irradiated coating film under a non-oxidizing atmosphere and (b) plasma processing onto the electron beam irradiated coating film, and (a) irradiating a vacuum ultra-violet light onto the electron beam irradiated coating film under a non-oxidizing atmosphere and (b) plasma processing onto the electron beam irradiated coating film, and (iv) heating the treated-coating film of step (iii) under a non-oxidizing atmosphere.