mhurhangee/patent-ind-claim-en huggingface dataset:
A computing system comprising: a power receiver unit, PRU, which is adapted to receive a charging notification from a power transmit unit, PTU in a power transfer field of the computing system ; a control engine coupled to the PRU , wherein the control engine is adapted to ascertain, in response to receiving the charging notification, whether a near field communication, NFC, component of the computing system is in an active state for data communication; and provide an input to switch the active state of the NFC component to an inactive state for disabling data communication through the NFC component ; and characterized by a light sensor , wherein the light sensor is adapted to: detect presence of an NFC device in an NFC field of the computing system by detecting light reflected from the NFC device and comparing the detected reflected light with ambient light conditions of the computing system ; and in response to detecting presence of the NFC device , provide an NFC detection input to the control engine to further generate a control input to the PRU to disable wireless charging. a power receiver unit, PRU, which is adapted to receive a charging notification from a power transmit unit, PTU in a power transfer field of the computing system ; a control engine coupled to the PRU , wherein the control engine is adapted to ascertain, in response to receiving the charging notification, whether a near field communication, NFC, component of the computing system is in an active state for data communication; and provide an input to switch the active state of the NFC component to an inactive state for disabling data communication through the NFC component ; and characterized by a light sensor , wherein the light sensor is adapted to: detect presence of an NFC device in an NFC field of the computing system by detecting light reflected from the NFC device and comparing the detected reflected light with ambient light conditions of the computing system ; and in response to detecting presence of the NFC device , provide an NFC detection input to the control engine to further generate a control input to the PRU to disable wireless charging. detect presence of an NFC device in an NFC field of the computing system by detecting light reflected from the NFC device and comparing the detected reflected light with ambient light conditions of the computing system ; and in response to detecting presence of the NFC device , provide an NFC detection input to the control engine to further generate a control input to the PRU to disable wireless charging.
Use of an inositol derivative, in which a monosaccharide or an oligosaccharide is bonded to inositol, for the non-therapeutic prevention or treatment of wrinkles, wherein a total amount of the monosaccharide or the oligosaccharide bonded to one inositol molecule is 2 or greater in terms of monosaccharide unit.
A method for producing a prosthesis liner which can be pulled over an amputation stump like a stocking, characterized in that the prosthesis liner is produced at least partially by means of an additive manufacturing process from at least one production material that is introduced into a support material in a flowable state and then hardens.
Device for adjusting a seat position of a vehicle seat , wherein the device comprises at least one support element for a seat part and is connectable to a seat substructure , characterised in that the device comprises at least one first leg and at least one second leg , the legs being rotatably arrangeable on the seat substructure and the at least one support element , wherein a first angle α between the first leg and the support element can be adjusted by an angle adjustment device , wherein the at least one first leg and the at least one second leg are mechanically coupled, wherein a change in the angle α causes the at least one support element to be displaced along a height axis Z and along a longitudinal axis X, wherein the angle adjustment device comprises a locking device , which locks an adjusted angle α, wherein the angle adjustment device comprises a drive , by means of which the locking device is driven in order to change the angle α, wherein the drive is connected to a primary shaft extending in a width direction (Y) in a form-fitting manner, wherein the primary shaft comprises a spur gear on both sides, wherein the spur gears each transmit the force to a further spur gear , which are connected to a respective locking device in a form-fitting manner by means of secondary axles.
A method of obtaining a measure of porosity and pore size in a rock sample from a subsurface hydrocarbon reservoir, comprising the steps of: obtaining nuclear magnetic resonance T 1 relaxation times of the rock sample fully saturated with water ; obtaining a nuclear magnetic resonance T 1 relaxation dispersion profile of the rock sample at irreducible water saturation using fast field cycling nuclear magnetic resonance relaxometry; identifying pore types in the pores of the rock sample based on the obtained nuclear magnetic resonance T 1 relaxation dispersion profile of the rock sample at irreducible water saturation ; wherein there are two identified pore types: small pores filled with brine and large pores filled with hydrocarbon; the method characterized by the steps of: determining porosity of the two identified pore types based on the nuclear magnetic resonance T 1 relaxation times by calculating the area under each T 1 distribution peak for each pore type; and determining pore size of the two identified pore types based on the nuclear magnetic resonance T 1 relaxation times using the following equations, wherein T 1,bulk , T 1,brine and T 1,hydrocarbon are the T 1 relaxation times of bulk fluid, brine and hydrocarbon, respectively, ρ 1,s and ρ 1.l are the surface relaxivity of T 1 for small and large pores, respectively, and whereby said small and large pores are assumed to be spherical with respective radii r s and r l : 1 T 1 , brine ω I ≅ 1 T 1 , bulk + ρ 1 , s 1 r s and 1 T 1 , hydrocarbon ω I ≅ 1 T 1 , bulk + ρ 1 , l 1 r l . obtaining nuclear magnetic resonance T 1 relaxation times of the rock sample fully saturated with water ; obtaining a nuclear magnetic resonance T 1 relaxation dispersion profile of the rock sample at irreducible water saturation using fast field cycling nuclear magnetic resonance relaxometry; identifying pore types in the pores of the rock sample based on the obtained nuclear magnetic resonance T 1 relaxation dispersion profile of the rock sample at irreducible water saturation ; wherein there are two identified pore types: small pores filled with brine and large pores filled with hydrocarbon; determining porosity of the two identified pore types based on the nuclear magnetic resonance T 1 relaxation times by calculating the area under each T 1 distribution peak for each pore type; and determining pore size of the two identified pore types based on the nuclear magnetic resonance T 1 relaxation times using the following equations, wherein T 1,bulk , T 1,brine and T 1,hydrocarbon are the T 1 relaxation times of bulk fluid, brine and hydrocarbon, respectively, ρ 1,s and ρ 1.l are the surface relaxivity of T 1 for small and large pores, respectively, and whereby said small and large pores are assumed to be spherical with respective radii r s and r l : 1 T 1 , brine ω I ≅ 1 T 1 , bulk + ρ 1 , s 1 r s and 1 T 1 , hydrocarbon ω I ≅ 1 T 1 , bulk + ρ 1 , l 1 r l .
Single seed sowing unit for a single seed drill, comprising a coulter carrier with a coulter fixed thereto; a separating device fixed to the coulter carrier ; a catching roller ; and a seed channel leading from the separating device to the catching roller , the catching roller and a lower end section of the seed channel being fixed to a catching roller carrier that can be moved relative to the coulter carrier , characterized in that the seed channel between the separating device and the lower end section comprises at least one flexible hose, or the seed channel comprises at least one telescopic section between the separating device and the lower end section .
A method for updating geological models, comprising: a) performing a normal score transform on a current geological model realization using a computer processor, the current geological model realization belonging to a predefined number of geological model realizations for a geological model; b) performing a forward DCT on the transformed current geological model realization, the results representing current DCT coefficients; c) selecting a random sample from the predefined number of geological model realizations; d) performing a normal score transform on the random sample of geological model realizations selected; e) performing a forward DCT on the random sample of geological realizations processed by the normal score transform, the results representing a random sample of DCT coefficients; f) truncating the current DCT coefficients and the random sample of DCT coefficients; g) updating each current DCT coefficient that was truncated by perturbing the truncated current DCT coefficients with the truncated random sample of DCT coefficients; h) performing an inverse DCT on each updated DCT coefficient, the results representing an updated geological model; i) performing a normal score transform on the updated geological model, the results representing an updated geological model in zero-mean and unit-variance domain; and j) renormalizing the updated geological model. a) performing a normal score transform on a current geological model realization using a computer processor, the current geological model realization belonging to a predefined number of geological model realizations for a geological model; b) performing a forward DCT on the transformed current geological model realization, the results representing current DCT coefficients; c) selecting a random sample from the predefined number of geological model realizations; d) performing a normal score transform on the random sample of geological model realizations selected; e) performing a forward DCT on the random sample of geological realizations processed by the normal score transform, the results representing a random sample of DCT coefficients; f) truncating the current DCT coefficients and the random sample of DCT coefficients; g) updating each current DCT coefficient that was truncated by perturbing the truncated current DCT coefficients with the truncated random sample of DCT coefficients; h) performing an inverse DCT on each updated DCT coefficient, the results representing an updated geological model; i) performing a normal score transform on the updated geological model, the results representing an updated geological model in zero-mean and unit-variance domain; and j) renormalizing the updated geological model.
An ultrasound elastography system for providing a strain image of an anatomical site, the system comprising a signal processing unit configured to: - receive a time-varying ultrasound signal from an ultrasound probe having at least one transducer element, - determine axial motion data based on the time-varying ultrasound signal, the axial motion data indicating a relative axial motion between the ultrasound probe and the anatomical site in an axial direction (y), and - determine a lateral variation of the axial motion in a lateral direction (x) based on the axial motion data; and the system further comprising a display unit configured to: - display a strain image of the anatomical site based on strain image data which is determined based on the axial motion data, and - display an indication of lateral variation of a quality of the strain image based on the lateral variation of the axial motion, characterized in that the indication of strain image quality is a bar graph having a bar , wherein a shape of the bar indicates the lateral variation of the strain image quality, wherein the lateral variation of the axial motion is determined by determining, for at least two lateral positions (x i ) in the lateral direction (x), an amount of relative axial motion and by comparing the amounts of axial motion, wherein the display unit is configured to display the indication of the lateral variation of the strain image quality by displaying an indication of the amount of relative axial motion as a function of the lateral position (x i ) and wherein the lateral variation of the strain image quality is directly the indication of the amount of relative axial motion as a function of the lateral position. - receive a time-varying ultrasound signal from an ultrasound probe having at least one transducer element, - determine axial motion data based on the time-varying ultrasound signal, the axial motion data indicating a relative axial motion between the ultrasound probe and the anatomical site in an axial direction (y), and - determine a lateral variation of the axial motion in a lateral direction (x) based on the axial motion data; and - display a strain image of the anatomical site based on strain image data which is determined based on the axial motion data, and - display an indication of lateral variation of a quality of the strain image based on the lateral variation of the axial motion,
An optoelectronic sensor , in particular a light barrier or a scanning light sensor, for detecting transparent objects in a monitoring area , wherein the sensor and the objects to be detected are in relative movement and wherein the sensor comprises a light transmitter for transmitting a light signal , a light receiver for generating a received signal from the received light signal, an evaluation unit configured to evaluate the received signal and to generate a corresponding object detection signal indicating whether a transparent object is detected in the monitoring area , and an output for outputting the object detection signal, characterized in that the evaluation unit is further configured to obtain a time-dependent received signal from the light spot generated on an object by the transmitted light signal and traveling over the object during the relative movement, to detect, based on the time-dependent received signal and reference information, by pattern matching, correlation, or by combining the time-dependent information by means of integration of the received signal, whether a detected transparent object has an additional feature , and to output corresponding additional feature information.
Sheetlike element which comprises a) at least one first subarea T1 of a first adhesive K1 , b) at least one second subarea T2 of a second adhesive K2 , which is different from the adhesive K1, and c) at least one barrier layer , where the at least one first subarea T1 and the at least one second subarea T2 are arranged next to one another in a plane, characterized in that the barrier layer is arranged substantially perpendicularly between the at least one first subarea T1 and the at least one second subarea T2. a) at least one first subarea T1 of a first adhesive K1 , b) at least one second subarea T2 of a second adhesive K2 , which is different from the adhesive K1, and c) at least one barrier layer , where the at least one first subarea T1 and the at least one second subarea T2 are arranged next to one another in a plane, characterized in that the barrier layer is arranged substantially perpendicularly between the at least one first subarea T1 and the at least one second subarea T2.
An overhang rail transport system for the transport of slaughter animal carcass parts comprising: • a first carrier being transported by a first overhead conveyor in a transport direction and having a first carcass engaging portion, the first carrier being arranged to selectively carry a carcass part by engaging the carcass part with the first carcass engaging portion, • a second carrier being transported by a second overhead conveyor and having a second carcass engaging portion, the second carrier being arranged to selectively carry a carcass part by engaging the carcass part with the second carcass engaging portion, • a vertical aligning device to align the first carcass engaging portion and the second carcass engaging portion in a vertical direction, • a horizontal aligning device to align the first carcass engaging portion and the second carcass engaging portion in a horizontal direction, so that both the first carcass engaging portion and the second carcass engaging portion simultaneously engage the carcass part, and • a removing device to remove the first carcass engaging portion completely from engagement with the carcass part, characterized by • a tilting device to tilt the first carcass engaging portion downwards, so that the weight of the carcass part is gradually transferred from the first carcass engaging portion to the second carcass engaging portion. • a first carrier being transported by a first overhead conveyor in a transport direction and having a first carcass engaging portion, the first carrier being arranged to selectively carry a carcass part by engaging the carcass part with the first carcass engaging portion, • a second carrier being transported by a second overhead conveyor and having a second carcass engaging portion, the second carrier being arranged to selectively carry a carcass part by engaging the carcass part with the second carcass engaging portion, • a vertical aligning device to align the first carcass engaging portion and the second carcass engaging portion in a vertical direction, • a horizontal aligning device to align the first carcass engaging portion and the second carcass engaging portion in a horizontal direction, so that both the first carcass engaging portion and the second carcass engaging portion simultaneously engage the carcass part, and • a removing device to remove the first carcass engaging portion completely from engagement with the carcass part, characterized by • a tilting device to tilt the first carcass engaging portion downwards, so that the weight of the carcass part is gradually transferred from the first carcass engaging portion to the second carcass engaging portion.
A cask liner for a nuclear fuel cask, the cask liner comprising: a hollow cylinder including a boron-containing composition, wherein the hollow cylinder has no longitudinal joints; characterized in that the cask liner further comprises a hollow cylindrical cladding including aluminum or an aluminum alloy; wherein the hollow cylindrical cladding is disposed on at least one of an inside surface and an outside surface of the hollow cylinder, the hollow cylindrical cladding has no longitudinal joints, and the hollow cylindrical cladding is formed together with the hollow cylinder by isostatic pressing. a hollow cylinder including a boron-containing composition, wherein the hollow cylinder has no longitudinal joints; characterized in that the cask liner further comprises a hollow cylindrical cladding including aluminum or an aluminum alloy; wherein the hollow cylindrical cladding is disposed on at least one of an inside surface and an outside surface of the hollow cylinder, the hollow cylindrical cladding has no longitudinal joints, and the hollow cylindrical cladding is formed together with the hollow cylinder by isostatic pressing.
A light source device comprising: a housing configured to have a great length along a predetermined direction (X); a plurality of light emitting elements disposed in the housing and arranged along at least the predetermined direction (X); one or a plurality of heat dissipation members disposed in the housing and thermally connected with the light emitting elements ; and a light shielding case , wherein a first intake port through which air is sucked into the housing from outside is provided in one end on one side of the housing in the predetermined direction (X), an exhaust port through which air is discharged to the outside from the housing is provided in another end on an other side of the housing in the predetermined direction (X), the light shielding case being removably attached to the housing , the light shielding case being configured to shut out light emitted from the light source device , the housing is provided with a light emission window configured to allow light from the light emitting elements to pass therethrough, the light shielding case is attached to the housing so as to shield light from the light emission window , and a surface of the light shielding case is formed with a passage area (R) allowing passage of an illuminated object along a direction perpendicular to the predetermined direction (X), a housing configured to have a great length along a predetermined direction (X); a plurality of light emitting elements disposed in the housing and arranged along at least the predetermined direction (X); one or a plurality of heat dissipation members disposed in the housing and thermally connected with the light emitting elements ; and a light shielding case , wherein a first intake port through which air is sucked into the housing from outside is provided in one end on one side of the housing in the predetermined direction (X), an exhaust port through which air is discharged to the outside from the housing is provided in another end on an other side of the housing in the predetermined direction (X), the light shielding case being removably attached to the housing , the light shielding case being configured to shut out light emitted from the light source device , the housing is provided with a light emission window configured to allow light from the light emitting elements to pass therethrough, the light shielding case is attached to the housing so as to shield light from the light emission window , and a surface of the light shielding case is formed with a passage area (R) allowing passage of an illuminated object along a direction perpendicular to the predetermined direction (X),