mhurhangee/patent-ind-claim-en huggingface dataset:
A control device configured to control a plurality of flight objects having a solar panel , a battery for storing an electrical power generated by the solar panel , and an antenna for forming a communication area on a ground with the electrical power stored in the battery and providing a wireless communication service for a user terminal within the communication area , the control device comprising: a flight object selecting unit configured to select a to-be-replaced active flight object among a plurality of active flight object , which are flight object each flying while covering a target area with the communication area ; and a replacement controlling unit configured to replace the to-be-replaced active flight object with a standby flight object which is a flight object flying without forming the communication area , wherein the standby flight object flies at a higher altitude than the to-be-replaced active flight object in a standby area , characterised in that the replacement controlling unit is configured to move the standby flight object toward the to-be-replaced active flight object with a flying manner with which the standby flight object uses less electrical power to fly than the to-be-replaced active flight object as the standby flight object glides for a longer time than the to-be-replaced active flight object on its flight path from the standby area to the to-be-replaced active flight object , and then replace the to-be-replaced active flight object with the standby flight object . a flight object selecting unit configured to select a to-be-replaced active flight object among a plurality of active flight object , which are flight object each flying while covering a target area with the communication area ; and a replacement controlling unit configured to replace the to-be-replaced active flight object with a standby flight object which is a flight object flying without forming the communication area , wherein the standby flight object flies at a higher altitude than the to-be-replaced active flight object in a standby area , characterised in that the replacement controlling unit is configured to move the standby flight object toward the to-be-replaced active flight object with a flying manner with which the standby flight object uses less electrical power to fly than the to-be-replaced active flight object as the standby flight object glides for a longer time than the to-be-replaced active flight object on its flight path from the standby area to the to-be-replaced active flight object , and then replace the to-be-replaced active flight object with the standby flight object .
An input device comprising: a holding section ; a rotating body rotatably supported on the holding section; a rotation detection unit configured to detect rotation of the rotating body; a brake-applying unit configured to apply a braking force to the rotating body; a torque-applying unit configured to apply a torque to the rotating body; and a control unit configured to control current supplied to a brake-applying coil and current supplied to at least two torque-applying coils , wherein the brake-applying unit includes a rotary plate provided to the rotating body, a magneto rheological fluid provided in a gap between the holding section and the rotary plate, and the brake-applying coil configured to provide a magnetic field to the magneto rheological fluid, characterized in that the torque-applying unit includes the at least two torque-applying coils configured to apply a rotation torque to the rotating body. a holding section ; a rotating body rotatably supported on the holding section; a rotation detection unit configured to detect rotation of the rotating body; a brake-applying unit configured to apply a braking force to the rotating body; a torque-applying unit configured to apply a torque to the rotating body; and a control unit configured to control current supplied to a brake-applying coil and current supplied to at least two torque-applying coils , wherein the brake-applying unit includes a rotary plate provided to the rotating body, a magneto rheological fluid provided in a gap between the holding section and the rotary plate, and the brake-applying coil configured to provide a magnetic field to the magneto rheological fluid, characterized in that the torque-applying unit includes the at least two torque-applying coils configured to apply a rotation torque to the rotating body.
An in vitro method for diagnosis of pancreatic cancer, the method comprising: (a) measuring the expression level of methionyl-tRNA synthetase (MRS) protein in a sample of pancreatic cells collected from a latent patient; and detecting cytokeratin 19 (CK19) protein in said sample; (b) comparing the expression level of the methionyl-tRNA synthetase protein measured in step (a) with that of a negative control, and determining the latent patient to be a pancreatic cancer patient when cytokeratin (CK19) protein is detected and the expression level of the methionyl-tRNA synthetase protein is increased compared with that of the negative control. (a) measuring the expression level of methionyl-tRNA synthetase (MRS) protein in a sample of pancreatic cells collected from a latent patient; and detecting cytokeratin 19 (CK19) protein in said sample; (b) comparing the expression level of the methionyl-tRNA synthetase protein measured in step (a) with that of a negative control, and determining the latent patient to be a pancreatic cancer patient when cytokeratin (CK19) protein is detected and the expression level of the methionyl-tRNA synthetase protein is increased compared with that of the negative control.
A diffractive security device comprising first and second diffractive structures defined in a carrier layer, the first diffractive structure being a diffractive zone plate structure of a continuously curved surface configured such that when the device is illuminated by on-axis light a first diffraction pattern generated by the first diffractive structure can be viewed from at least a first side of the device at substantially all viewing angles, the first diffraction pattern exhibiting a reference point or reference line relative to which other features of the first diffraction pattern appear to move when the viewing angle is changed; and the second diffractive structure being an off-axis diffractive structure configured such that when the device is illuminated by on-axis light a second diffraction pattern generated by the second diffractive structure can be viewed from at least the first side of the device at at least some off-axis viewing angles, wherein the second diffractive structure comprises a plurality of laterally offset portions, each portion of the second diffractive structure being configured such that when the device is illuminated by on-axis light the portion of the second diffraction effect generated by the respective portion of the second diffractive structure can be viewed only from a respective subset of one or more predetermined off-axis viewing angles, the respective subsets of viewing angles being different for different portions of the second diffractive structure such that when the viewing angle is changed different portions of the second diffractive device diffract light to the viewer in sequence, whereby the second diffraction effect appears to change; wherein the device has one or more first regions in which the first diffractive structure is present but not the second diffractive structure, and the device has one or more second regions in which the second diffractive structure is present, the first diffractive structure optionally being present and combined with the second diffractive structure in the second regions, the first and second regions being interspersed with one another across the device, such that the first diffraction pattern is exhibited across the device at all viewing angles and at at least some viewing angles the second diffraction pattern appears superimposed on the first diffraction pattern and upon changing the viewing angle the second diffraction pattern exhibits a change referenced against the reference point or reference line of the first diffraction pattern.
A platform load sensing system connected between a boom via a boom side and a platform via a platform side , the platform load sensing system comprising: an upper bearing link connecting the boom side to the platform side; a lower bearing link connecting the boom side to the platform side, wherein the upper and lower bearing links are configured to allow for relative motion between the boom side and the platform side; a load member with a contact surface secured to the platform side between the upper and lower bearing links; a load cell secured to the boom side; wherein a load moment on the platform side is functionally eliminated by the upper and lower bearing links , wherein a vertical load on the platform side is transferred through the load member to the load cell ; characterised by a boom side stop member secured to the boom side; anc a platform side stop member , spaced from the boom side stop member by a vertical gap , secured to the platform side, wherein the load member is secured to the platform side via the platform side stop member , wherein the boom side and platform side stop members limit an upward displacement distance of the platform side relative to the boom side; and wherein if the platform is lowered on to a surface or is otherwise subjected to an upward vertical force, the platform side will rise up relative to the boom side , thereby unloading the load cell until the gap closes and further motion is prohibited. an upper bearing link connecting the boom side to the platform side; a lower bearing link connecting the boom side to the platform side, wherein the upper and lower bearing links are configured to allow for relative motion between the boom side and the platform side; a load member with a contact surface secured to the platform side between the upper and lower bearing links; a load cell secured to the boom side; wherein a load moment on the platform side is functionally eliminated by the upper and lower bearing links , wherein a vertical load on the platform side is transferred through the load member to the load cell ; characterised by a boom side stop member secured to the boom side; anc a platform side stop member , spaced from the boom side stop member by a vertical gap , secured to the platform side, wherein the load member is secured to the platform side via the platform side stop member , wherein the boom side and platform side stop members limit an upward displacement distance of the platform side relative to the boom side; and wherein if the platform is lowered on to a surface or is otherwise subjected to an upward vertical force, the platform side will rise up relative to the boom side , thereby unloading the load cell until the gap closes and further motion is prohibited.
A method of testing a speaker to detect piano noise distortion played back by the speaker, comprising: generating a transient test signal having three distinct formant tones configured to allow frequencies and harmonics to remain distributed in frequency, wherein the formant tones are adapted to excite intermodulation distortion, IMD, artefacts and harmonic distortion, HD, artefacts from the speaker, and wherein the test signal is configured with a specific time windowing to mimic a piano-type temporal envelope and minimize spectral leakage, and wherein the test signal is an impulse signal and is contained in a stimulus region within an audio spectrum; applying the test signal to the speaker; measuring a microphone response of the speaker to capture a frequency response within an analysis region of the audio spectrum separate from the stimulus region; and comparing the measured microphone response to a derived baseline value to determine a pass or fail performance of the speaker for reporting back to a user; wherein the piano noise distortion comprises IMD and HD components present in the analysis region of the test signal, wherein the impulse signal has a sound pressure level decaying according to a decay envelope over a specified time period to obtain the captured frequency response of the speaker to the test signal and wherein the method further comprises shaping the impulse signal prior to the applying step by defining at least one of a length of the time period, an initial power of the sound pressure level, and a shape of the decay envelope. generating a transient test signal having three distinct formant tones configured to allow frequencies and harmonics to remain distributed in frequency, wherein the formant tones are adapted to excite intermodulation distortion, IMD, artefacts and harmonic distortion, HD, artefacts from the speaker, and wherein the test signal is configured with a specific time windowing to mimic a piano-type temporal envelope and minimize spectral leakage, and wherein the test signal is an impulse signal and is contained in a stimulus region within an audio spectrum; applying the test signal to the speaker; measuring a microphone response of the speaker to capture a frequency response within an analysis region of the audio spectrum separate from the stimulus region; and comparing the measured microphone response to a derived baseline value to determine a pass or fail performance of the speaker for reporting back to a user; wherein the piano noise distortion comprises IMD and HD components present in the analysis region of the test signal, wherein the impulse signal has a sound pressure level decaying according to a decay envelope over a specified time period to obtain the captured frequency response of the speaker to the test signal and wherein the method further comprises shaping the impulse signal prior to the applying step by defining at least one of a length of the time period, an initial power of the sound pressure level, and a shape of the decay envelope.
Arrangement for transporting a wind turbine component , the arrangement comprising: at least one first portion adapted to be placed on a loading area, in particular of a trailer ; a second portion , in particular component adapter portion, adapted to support the component , the first portion and the second portion each having a respective connection interface via which the first portion and the second portion are reversibly coupleable to each other, wherein the connection interface of the first portion and the second portion each comprises at least four substantially flat connection plates each having at least one hole for at least one bolt, wherein contact surfaces of all connection plates of the first portion are arranged in a plane, wherein contact surfaces of all connection plates of the second portion are arranged in a plane, wherein the connection plates of the first portion and/or the second portion are spaced apart in a width direction by a first distance (d1), wherein adjacent ones of the connection plates of at least the first portion are spaced apart in a longitudinal direction by at least two different second distances (d2_1, d2_2, d2_3). at least one first portion adapted to be placed on a loading area, in particular of a trailer ; a second portion , in particular component adapter portion, adapted to support the component , the first portion and the second portion each having a respective connection interface via which the first portion and the second portion are reversibly coupleable to each other, wherein the connection interface of the first portion and the second portion each comprises at least four substantially flat connection plates each having at least one hole for at least one bolt, wherein contact surfaces of all connection plates of the first portion are arranged in a plane, wherein contact surfaces of all connection plates of the second portion are arranged in a plane, wherein the connection plates of the first portion and/or the second portion are spaced apart in a width direction by a first distance (d1), wherein adjacent ones of the connection plates of at least the first portion are spaced apart in a longitudinal direction by at least two different second distances (d2_1, d2_2, d2_3).
A genetically engineered yeast cell, comprising a cytoplasm, wherein said cytoplasm contains pyruvate dehydrogenase, citrate synthase, aconitase, isocitrate dehydrogenase, alpha-keto glutarate dehydrogenase, succinyl-CoA synthetase, malate dehydrogenase, fumarase, and fumarate reductase.
Cellulose composite microfibers obtained by adsorbing a surfactant onto cellulose microfibers having a carboxyl group content of 0.1 to 3 mmol/g , wherein the average fiber diameter is 200 nm or smaller, when determined by the method indicated in the description.
A network tap , comprising: - a first network connector for connecting to a first network device ; - a second network connector for connecting to a second network device ; - a third network connector for connecting to a monitoring device ; and - circuitry (20,31-33,35,40,60, 75,81-84, 91-92,102,112) connecting an output of said first network connector to an input of said second network connector , an output of said second network connector to an input of said first network connector , and an output of at least one of said first network connector and said second network connector to an input of said third network connector , wherein said circuitry (20,31-33,35,40,60, 75,81-84, 91-92,102,112) is configured to extract a clock signal from a first signal on an output of one of said first network connector and said second network connector , characterized by further comprising a phase locked loop and in that said circuitry is arranged to connect an output of said circuitry to an input of said phase locked loop and an output of said phase locked loop to an input of said circuitry, wherein said circuitry is configured to provide said clock signal to said phase locked loop , receive a reference clock signal derived from the recovered clock signal from said phase locked loop and clock a second signal on said input of the other one of said first network connector and said second network connector using said received reference clock signal if a link has been established between said first network device and said first network connector and a link has been established between said second network device and said second network connector , wherein said network tap further comprises a free running clock coupled to said phase locked loop , wherein said circuitry is configured to receive a reference clock signal derived from a clock signal of said free running clock from said phase locked loop and use said reference clock signal to establish a link between said first network device and said first network connector and a link between said second network device and said second network connector . - a first network connector for connecting to a first network device ; - a second network connector for connecting to a second network device ; - a third network connector for connecting to a monitoring device ; and - circuitry (20,31-33,35,40,60, 75,81-84, 91-92,102,112) connecting an output of said first network connector to an input of said second network connector , an output of said second network connector to an input of said first network connector , and an output of at least one of said first network connector and said second network connector to an input of said third network connector ,
A cooking mould made of a paper material for food products, in particular for sweet foods such as panettone cake and/or tarts, comprising: a base made of a paper sheet material having a first and a second prevalent development surface opposite one another, at least a lateral wall made of a paper sheet material having a first and a second prevalent development surface opposite one another, the lateral wall emerging transversally from the base ; the base and the lateral wall defining a housing compartment configured so as to contain one or more food products, the lateral wall , on the opposite side with respect to the base , defining a free edge delimiting the housing compartment and defining an opening located, in a use condition of the mould , in an upper part thereof; wherein at least the lateral wall comprises: a first layer made of a substantially smooth paper material defining one from between the first and second prevalent development surface , a second layer made of paper material, opposite the first layer , defining another from between the first and second prevalent development surface ; and wherein the second layer is an undulated layer exhibiting a plurality of undulations , each of which extends along a first trajectory (T1) of prevalent development, each undulation exhibiting a predetermined height (h) defined by a maximum distance between a base portion and a crest of each undulation , characterised in that the second undulated layer further comprises a plurality of troughs defined along the first trajectory (T1) of the undulations so as to define on the undulations a plurality of successive height reductions of the undulation , the troughs being formed by at least partially crushing at least a part of the undulations at the crest . a base made of a paper sheet material having a first and a second prevalent development surface opposite one another, at least a lateral wall made of a paper sheet material having a first and a second prevalent development surface opposite one another, the lateral wall emerging transversally from the base ; a first layer made of a substantially smooth paper material defining one from between the first and second prevalent development surface , a second layer made of paper material, opposite the first layer , defining another from between the first and second prevalent development surface ;
Gear mechanism, in particular coaxial gear mechanism, hollow shaft gear mechanism, hypoid gear mechanism, axial gear mechanism or linear gear mechanism, having a drive element , an element and an output element , wherein a speed ratio and a transmission of a drive torque between the drive element and the output element takes place via a plurality of movable toothed segments , wherein the toothed segments have individual teeth , wherein the drive element is provided with at least one profiling , and wherein a roller bearing is provided between the profiling of the drive element and the toothed segments, and wherein the toothed segments can be moved by means of the drive element against toothing of the stationary element , wherein the plurality of toothed segments is movably mounted in the output element , wherein the profiling is designed as a polygonal profile having a plurality of projections.