mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: - a cavity that is reflective for RF waves and comprising at least one elastic wave sensor exhibiting a resonance frequency band coupled to one antenna referred to as the sensor antenna and; - a device for interrogation/reception of said sensor, characterised in that said interrogation/reception device comprises: ∘ means for transmitting/receiving an RF signal transmitting within an interrogation frequency band comprising said resonance frequency band of said sensor; ∘ at least a first transmission/reception antenna and a second transmission/reception antenna positioned within said cavity; ∘ means for dividing said signal into at least a first RF signal and a second RF signal, said first signal being transmitted to said first transmission/reception antenna and said second signal being transmitted to said second transmission/reception antenna; ∘ means for creating a phase-shift (102, 103) between said first RF signal and said second RF signal; ∘ means for analysing the power level of the received signal. - a cavity that is reflective for RF waves and comprising at least one elastic wave sensor exhibiting a resonance frequency band coupled to one antenna referred to as the sensor antenna and; - a device for interrogation/reception of said sensor, characterised in that said interrogation/reception device comprises: ∘ means for transmitting/receiving an RF signal transmitting within an interrogation frequency band comprising said resonance frequency band of said sensor; ∘ at least a first transmission/reception antenna and a second transmission/reception antenna positioned within said cavity; ∘ means for dividing said signal into at least a first RF signal and a second RF signal, said first signal being transmitted to said first transmission/reception antenna and said second signal being transmitted to said second transmission/reception antenna; ∘ means for creating a phase-shift (102, 103) between said first RF signal and said second RF signal; ∘ means for analysing the power level of the received signal. ∘ means for transmitting/receiving an RF signal transmitting within an interrogation frequency band comprising said resonance frequency band of said sensor; ∘ at least a first transmission/reception antenna and a second transmission/reception antenna positioned within said cavity; ∘ means for dividing said signal into at least a first RF signal and a second RF signal, said first signal being transmitted to said first transmission/reception antenna and said second signal being transmitted to said second transmission/reception antenna; ∘ means for creating a phase-shift (102, 103) between said first RF signal and said second RF signal; ∘ means for analysing the power level of the received signal.
Device having a single-piece SAE fitting with a connection block and having an SAE head fitting for very-high-pressure hoses, the SAE head fitting comprising a tubular socket for connection to a very-high-pressure hose and comprising a connection head at one end, connected to the single-piece SAE fitting with the connection block, and further comprising a single-piece full flange, which is mounted in a displaceable manner on the connection head, wherein the connection head has a portion which is in the form of a truncated cone over at least part of its circumference and has a larger truncated-cone end surface and a smaller truncated-cone end surface, wherein its smaller truncated -cone end surface forms a transition to the tubular socket, and the full flange has a through-passage opening which, at least in part, has a truncated-cone-shaped negative profile adapted to the truncated-cone-shaped portion of the connection head, wherein a cross-sectionally circular fluid channel runs through the tubular socket and the connection head and has a fluid-channel diameter (d 1), an inflow opening at the free end of the tubular socket and an outflow opening in the region of an end surface arranged on the connection head, characterized in that, for the connection of the SAE head fitting to the connection block having a flow-entry opening with an opening diameter (d 2) of 30 mm, 38 mm or 50 mm, the opening diameter (d 2) is associated with the fluid-channel diameter (d 1) in accordance with the following table: Opening diameter (d 2) [mm] Fluid-channel diameter (d 1) [mm] 30 28 38 36 50 46
A computer implemented method of generating an image composition (351 i) by adding a digital image (350 i) or part thereof to an image composition (351 i-1), comprising the steps of: - determining movement (r (i-1)i) between a first digital image (350 i-1) and a second digital image (350 i) using a representation (350 i-1 ') of the first digital image (350 i-1) obtained by compensating the first digital image (350 i-1) for at least one exposure parameter (p i-1) and a representation (350 i ') of the second digital image (350 i ') obtained by compensating the second digital image (350 i) for at least one exposure parameter (p i), wherein: a property of each of the first and the second representation (350 i-1 '; 350 i ') has been changed by compensating for at least one difference between the at least one exposure parameter (p i-l; p i) of the respective digital images (350 i-l 350 i) and at least one exposure parameter (p l) of a digital reference image (350 1); and - using the movement (r (i-1)i) to add the second digital image (350 i) or part thereof to the image composition (350 i). - determining movement (r (i-1)i) between a first digital image (350 i-1) and a second digital image (350 i) using a representation (350 i-1 ') of the first digital image (350 i-1) obtained by compensating the first digital image (350 i-1) for at least one exposure parameter (p i-1) and a representation (350 i ') of the second digital image (350 i ') obtained by compensating the second digital image (350 i) for at least one exposure parameter (p i), wherein: a property of each of the first and the second representation (350 i-1 '; 350 i ') has been changed by compensating for at least one difference between the at least one exposure parameter (p i-l; p i) of the respective digital images (350 i-l 350 i) and at least one exposure parameter (p l) of a digital reference image (350 1); and a property of each of the first and the second representation (350 i-1 '; 350 i ') has been changed by compensating for at least one difference between the at least one exposure parameter (p i-l; p i) of the respective digital images (350 i-l 350 i) and at least one exposure parameter (p l) of a digital reference image (350 1); and - using the movement (r (i-1)i) to add the second digital image (350 i) or part thereof to the image composition (350 i).
A liquid ejecting apparatus which ejects liquid onto a medium, the liquid ejecting apparatus comprising: a carriage which includes a control substrate configuring at least a part of a control unit which controls driving of the entire liquid ejecting apparatus, an ejecting unit which ejects the liquid, and a driving substrate which is connected to the control substrate and the ejecting unit, and drives the ejecting unit, wherein the carriage is provided with a load absorbing unit, the driving substrate and the ejecting unit are connected through the load absorbing unit, the load absorbing unit absorbs a physical load with respect to the ejecting unit from the driving substrate side, and the load absorbing unit includes an elastic body. a carriage which includes a control substrate configuring at least a part of a control unit which controls driving of the entire liquid ejecting apparatus, an ejecting unit which ejects the liquid, and a driving substrate which is connected to the control substrate and the ejecting unit, and drives the ejecting unit, wherein the carriage is provided with a load absorbing unit, the driving substrate and the ejecting unit are connected through the load absorbing unit, the load absorbing unit absorbs a physical load with respect to the ejecting unit from the driving substrate side, and the load absorbing unit includes an elastic body.
A flatness measuring roller for determining flatness errors of a strip, particularly of a metal strip, in the course of a measurement of the strip tension distribution over the strip width, having a plurality of measurement points integrated into the roller surface, which are arranged in a distributed manner at various width positions for measuring the strip tension over the roller width, the measurement points in each case having a measuring bar flush with the roller surface, the measuring bars in each case bearing on two force-measuring sensors arranged one behind the other in the longitudinal direction, and the measuring bars having a constant width (b) at least over a part of the length ( l ') thereof defining a measuring length ( l), it being possible with the measurement points to detect a multiplicity of measured values for each roller revolution for the respective width position in each case, characterized in that the longitudinal direction of the measuring bars running in the strip running direction are orientated perpendicularly to the roller axis in a plan view onto the roller surface and at least five measurement points are arranged in a distributed manner over the width.
Structure for holding and transporting parts comprising: an elongated frame, holding elements arranged parallel and adjacent to each other, each comprising a vertical body having a hook in its lower end intended for hanging parts, characterized in that the structure additionally comprises: guides defined in the frame which allow a guided vertical displacement of the holding elements, elastic recovery means, provided with two ends, in which one of them is attached to the holding element and the other one to the frame, intended to facilitate the downward gradual displacement of the holding element towards a lower position, and the recovery of an upper position of the holding element in upward direction, and in that the holding elements additionally comprise: a pusher attached to the body, protruding from one side of the body, a stopper attached to the body and protruding from the body side opposite to the pusher, both the pusher and the stopper of each holding element placed and dimensioned in such a way that the downward displacement of a holding element, caused by the weight of a part hanging on its hook, determines the thrust of the pusher on the stopper of the adjacent holding element, and the downward displacement of the latter until an intermediate position in which the hook is spaced apart from the frame to receive a new part. an elongated frame, holding elements arranged parallel and adjacent to each other, each comprising a vertical body having a hook in its lower end intended for hanging parts, guides defined in the frame which allow a guided vertical displacement of the holding elements, elastic recovery means, provided with two ends, in which one of them is attached to the holding element and the other one to the frame, intended to facilitate the downward gradual displacement of the holding element towards a lower position, and the recovery of an upper position of the holding element in upward direction, a pusher attached to the body, protruding from one side of the body, a stopper attached to the body and protruding from the body side opposite to the pusher,
An adhesive composition comprising: an elastomeric polymer comprising a mixture of a vinyl elastomer and an epoxy elastomer, the elastomeric polymer mixture is present in an amount within the range of 20% to 40% by weight, an epoxy resin, present in the adhesive composition in the range of 3% to 10% by weight, reactive diluent comprising a combination of two or more diluents, one of which has carbon to carbon unsaturation, the combination present in the adhesive composition within the range of 35% to 50% by weight of the composition, and filler making up the reminder of the composition to a total of 100% by weight. an elastomeric polymer comprising a mixture of a vinyl elastomer and an epoxy elastomer, the elastomeric polymer mixture is present in an amount within the range of 20% to 40% by weight, an epoxy resin, present in the adhesive composition in the range of 3% to 10% by weight, reactive diluent comprising a combination of two or more diluents, one of which has carbon to carbon unsaturation, the combination present in the adhesive composition within the range of 35% to 50% by weight of the composition, and filler making up the reminder of the composition to a total of 100% by weight.
A compressor, comprising: a casing; an electric motor housed in an internal space of the casing; a drive shaft rotated by the electric motor; and a compression mechanism driven by the drive shaft to compress a refrigerant and discharge the compressed refrigerant to the internal space, the internal space including a first space formed near one axial end of the electric motor, and a second space formed near another axial end of the electric motor, the electric motor including a stator and a rotating member, the stator being fixed to the casing, the rotating member including a rotor rotatably inserted into the stator, the electric motor having a refrigerant flow path through which the first and second spaces and communicate with each other, the refrigerant flow path including: a first flow path into which the refrigerant in the first space or the second space flows; and a rotor flow path extending axially across the rotor and connected to an outflow end of the first flow path, the first flow path being configured to reduce or facilitate a flow of oil contained in the refrigerant into the refrigerant flow path and including a second flow path extending radially outward of the rotor from the rotor flow path, or a third flow path extending radially inward of the rotor from the rotor flow path. a casing; an electric motor housed in an internal space of the casing; a drive shaft rotated by the electric motor; and a compression mechanism driven by the drive shaft to compress a refrigerant and discharge the compressed refrigerant to the internal space, the internal space including a first space formed near one axial end of the electric motor, and a second space formed near another axial end of the electric motor, the electric motor including a stator and a rotating member, the stator being fixed to the casing, the rotating member including a rotor rotatably inserted into the stator, the electric motor having a refrigerant flow path through which the first and second spaces and communicate with each other, the refrigerant flow path including: a first flow path into which the refrigerant in the first space or the second space flows; and a rotor flow path extending axially across the rotor and connected to an outflow end of the first flow path, the first flow path being configured to reduce or facilitate a flow of oil contained in the refrigerant into the refrigerant flow path and including a second flow path extending radially outward of the rotor from the rotor flow path, or a third flow path extending radially inward of the rotor from the rotor flow path. a first flow path into which the refrigerant in the first space or the second space flows; and a rotor flow path extending axially across the rotor and connected to an outflow end of the first flow path, the first flow path being configured to reduce or facilitate a flow of oil contained in the refrigerant into the refrigerant flow path and including a second flow path extending radially outward of the rotor from the rotor flow path, or a third flow path extending radially inward of the rotor from the rotor flow path.
A system comprising: a) a catheter insertable into a patient for monitoring pressure, the catheter comprising a first balloon at a distal portion of the catheter, the first balloon having a first outer wall expandable from a first condition to a more expanded condition; and a second balloon having a second outer wall, the first balloon being external of the second balloon, the second balloon having a fluid chamber to monitor pressure within the patient, wherein in response to pressure exerted on an outer wall of the expanded first balloon fluid pressure is exerted on an outer wall of the expanded second balloon to deform the second balloon and compress the fluid within the second balloon to provide a pressure measurement; and characterized by b) a smart cable (700, 800) connectable at one end to the catheter and to a pressure monitor at the opposite end, the cable having data storage capability, the cable being configured to store a pressure value of the second balloon, the cable having a printed circuit and a movement adjustment feature configured to adjust pressure values in response to a patient moving from a supine position. a) a catheter insertable into a patient for monitoring pressure, the catheter comprising a first balloon at a distal portion of the catheter, the first balloon having a first outer wall expandable from a first condition to a more expanded condition; and a second balloon having a second outer wall, the first balloon being external of the second balloon, the second balloon having a fluid chamber to monitor pressure within the patient, wherein in response to pressure exerted on an outer wall of the expanded first balloon fluid pressure is exerted on an outer wall of the expanded second balloon to deform the second balloon and compress the fluid within the second balloon to provide a pressure measurement; and characterized by a first balloon at a distal portion of the catheter, the first balloon having a first outer wall expandable from a first condition to a more expanded condition; and a second balloon having a second outer wall, the first balloon being external of the second balloon, the second balloon having a fluid chamber to monitor pressure within the patient, wherein in response to pressure exerted on an outer wall of the expanded first balloon fluid pressure is exerted on an outer wall of the expanded second balloon to deform the second balloon and compress the fluid within the second balloon to provide a pressure measurement; and characterized by b) a smart cable (700, 800) connectable at one end to the catheter and to a pressure monitor at the opposite end, the cable having data storage capability, the cable being configured to store a pressure value of the second balloon, the cable having a printed circuit and a movement adjustment feature configured to adjust pressure values in response to a patient moving from a supine position.
An olefin polymer having greater than 85 percent chain end unsaturation, determined by NMR according to the method disclosed in the experimental section of the specifications, where greater than 70 percent of said unsaturation comprises 1,2-disubstituted olefinic unsaturation, wherein the olefin polymer consists essentially of 4-methyl-1-pentene in polymerized form.
A process for preparing a compound of formula J-15, or a salt thereof: wherein X is selected from the group consisting of Br, I and Cl, for example, Br; PG 1 is a carboxylic acid protecting group; PG 2 is an amino protecting group; and PG 3 is an amino protecting group; the process comprising: (a) reacting a compound of Formula J-14: or a salt thereof, with hydrazine to give the compound of formula J-15 and (b) optionally forming a salt of compound J-15. X is selected from the group consisting of Br, I and Cl, for example, Br; PG 1 is a carboxylic acid protecting group; PG 2 is an amino protecting group; and PG 3 is an amino protecting group; the process comprising: (a) reacting a compound of Formula J-14: or a salt thereof, with hydrazine to give the compound of formula J-15 and (b) optionally forming a salt of compound J-15. (a) reacting a compound of Formula J-14: or a salt thereof, with hydrazine to give the compound of formula J-15 and (b) optionally forming a salt of compound J-15.
Method for ascertaining a value of an ice buildup quantity on at least one rotor blade (111, 112) of a wind turbine, comprising: determining a base value for at least one resonant frequency of the rotor blade (111, 112) during vibration stimulation in an ice buildup free state; determining a base displacement factor for a displacement of the at least one resonant frequency compared to the ice buildup free state when the amount of ice buildup quantity has increased by a certain value; detecting a measured value or a sequence ofmeasured values of a measured variable suitable for determining the current resonant frequencies of the rotor blade (111, 112), and determining the current resonant frequencies of the rotor blade (111, 112); deriving a current displacement factor by comparing the current resonant frequencies with the base value, comparing the current displacement factor with the base displacement factor, and deriving a value of the ice buildup quantity based on the comparison; characterized in that the method further comprises the following steps: specifying a threshold indicating the maximum possible ice buildup quantityon the rotor blade (111, 112); determining whether or not the derived value of the ice buildup quantityexceeds the threshold; if it is determined that the threshold has been exceeded: determining that an erroneous value has been determined for the value of the ice buildup. determining a base value for at least one resonant frequency of the rotor blade (111, 112) during vibration stimulation in an ice buildup free state; determining a base displacement factor for a displacement of the at least one resonant frequency compared to the ice buildup free state when the amount of ice buildup quantity has increased by a certain value; detecting a measured value or a sequence ofmeasured values of a measured variable suitable for determining the current resonant frequencies of the rotor blade (111, 112), and determining the current resonant frequencies of the rotor blade (111, 112); deriving a current displacement factor by comparing the current resonant frequencies with the base value, comparing the current displacement factor with the base displacement factor, and deriving a value of the ice buildup quantity based on the comparison; characterized in that the method further comprises the following steps: specifying a threshold indicating the maximum possible ice buildup quantityon the rotor blade (111, 112); determining whether or not the derived value of the ice buildup quantityexceeds the threshold; if it is determined that the threshold has been exceeded: determining that an erroneous value has been determined for the value of the ice buildup. specifying a threshold indicating the maximum possible ice buildup quantityon the rotor blade (111, 112); determining whether or not the derived value of the ice buildup quantityexceeds the threshold; if it is determined that the threshold has been exceeded: determining that an erroneous value has been determined for the value of the ice buildup.
A safety device for a pressurised gas tank, more especially of a motor vehicle, having a thermoelectric device, which is provided on a large surface region of the tank and which provides electrical energy when, exposed to heat, which directly or indirectly actuates a pressure relief device of the tank with suitable system design so as to avoid heat-induced damage to the tank, characterised in that the thermoelectric device is formed by a multiplicity of thermoelectric generators connected to one another, of which the electrical energy generated by exposure to heat is fed to an electrical and/or electronic memory unit, of which both poles or electrodes are connected via a discharge resistor, wherein the system design is such that a specific power difference between the power generated by the thermoelectric generators and the power lost in the discharge resistor actuates the pressure relief device directly or indirectly via an electrical or electronic circuit arrangement.