mhurhangee/patent-ind-claim-en huggingface dataset:
A plasma induced mutation breeding device, which comprises: a sample treatment system including a sterile compartment free of bioactive contaminant, a plasma generator, and radio frequency (RF) power module connected with the plasma generator; a cooling system for cooling the plasma generator; a detection system including a gas flow controller for controlling the gas flow which generates the plasma jet and a temperature sensor for detecting the temperature of the jet emitted by the plasma generator; and a control system with an operation panel and a controller for controlling the operation of the mutation breeding device, wherein the controller is connected with the RF power module, gas flow controller, temperature sensor, cooling system as well as the operation panel, respectively, and said plasma generator stably emits a plasma jet at 37±3°C during the biological sample processing, wherein the temperature sensor feedback the result of the detected jet temperature to the control system and according to the result, the cooling system maintains the temperature of the plasma jet emitted by the plasma generator at 37±3°C during the whole sample treatment process, and the RF power module includes a RF power and an adaptor which automatically matches the RF power, and said RF power is connected with the plasma generator via the adaptor, the adaptor detects the above temperature change of the plasma generator and then feedback the signal to RF power, thereby RF power adjusts the RF it emits according to the feedback signal. a sample treatment system including a sterile compartment free of bioactive contaminant, a plasma generator, and radio frequency (RF) power module connected with the plasma generator; a cooling system for cooling the plasma generator; a detection system including a gas flow controller for controlling the gas flow which generates the plasma jet and a temperature sensor for detecting the temperature of the jet emitted by the plasma generator; and a control system with an operation panel and a controller for controlling the operation of the mutation breeding device, wherein the controller is connected with the RF power module, gas flow controller, temperature sensor, cooling system as well as the operation panel, respectively, and said plasma generator stably emits a plasma jet at 37±3°C during the biological sample processing, wherein the temperature sensor feedback the result of the detected jet temperature to the control system and according to the result, the cooling system maintains the temperature of the plasma jet emitted by the plasma generator at 37±3°C during the whole sample treatment process, and the RF power module includes a RF power and an adaptor which automatically matches the RF power, and said RF power is connected with the plasma generator via the adaptor, the adaptor detects the above temperature change of the plasma generator and then feedback the signal to RF power, thereby RF power adjusts the RF it emits according to the feedback signal.
A sound generation assembly for a vehicle , comprising a first electroacoustic transducer comprising a piezo actuator , a second electroacoustic transducer comprising a non-metallic diaphragm and an electromagnetic actuator connected thereto, and a control unit being electrically connected to the first electroacoustic transducer and to the second electroacoustic transducer , characterized in that the control unit is configured to provide a first actuation signal (S1) to the first electroacoustic transducer and a second actuation signal (S2) to the second electroacoustic transducer , the first actuation signal (S1) and the second actuation signal (S2) being different and synchronized, wherein the first actuation signal (S1) and the second actuation signal (S2) are different in that the first actuation signal (S1) and the second actuation signal (S2) originate from different signal sources, and wherein a distance between a center of the first electroacoustic transducer and a center of the second electroacoustic transducer is 2 cm to 15 cm, such that a sound originating from the first electroacoustic transducer and a sound originating from the second electroacoustic transducer are perceived by a listener as a combined sound only. a first electroacoustic transducer comprising a piezo actuator , a second electroacoustic transducer comprising a non-metallic diaphragm and an electromagnetic actuator connected thereto, and a control unit being electrically connected to the first electroacoustic transducer and to the second electroacoustic transducer , characterized in that the control unit is configured to provide a first actuation signal (S1) to the first electroacoustic transducer and a second actuation signal (S2) to the second electroacoustic transducer , the first actuation signal (S1) and the second actuation signal (S2) being different and synchronized, wherein the first actuation signal (S1) and the second actuation signal (S2) are different in that the first actuation signal (S1) and the second actuation signal (S2) originate from different signal sources, and wherein a distance between a center of the first electroacoustic transducer and a center of the second electroacoustic transducer is 2 cm to 15 cm, such that a sound originating from the first electroacoustic transducer and a sound originating from the second electroacoustic transducer are perceived by a listener as a combined sound only.
A method of wireless communications performed by a device, comprising: determining a pool of preconfigured resources for discovery, wherein the preconfigured resources are designated for one or more of: a discovery preamble, a query signal, a discovery message, and a random access preamble; transmitting the discovery preamble on one or more of the preconfigured resources designated for the discovery preamble, wherein the discovery preamble indicates an availability for a discovery procedure; determining whether a query signal in response to the discovery preamble is received from a user equipment on one of the preconfigured resources designated for the query signal, wherein the query signal indicates that the user equipment is interested in receiving a discovery message; and transmitting the discovery message in response to receiving the query signal. determining a pool of preconfigured resources for discovery, wherein the preconfigured resources are designated for one or more of: a discovery preamble, a query signal, a discovery message, and a random access preamble; transmitting the discovery preamble on one or more of the preconfigured resources designated for the discovery preamble, wherein the discovery preamble indicates an availability for a discovery procedure; determining whether a query signal in response to the discovery preamble is received from a user equipment on one of the preconfigured resources designated for the query signal, wherein the query signal indicates that the user equipment is interested in receiving a discovery message; and transmitting the discovery message in response to receiving the query signal.
A positive current collector comprising a support layer having two surfaces opposite to each other in its thickness direction; a conductive layer arranged on at least one of the two surfaces of the support layer, wherein, the conductive layer has a thickness D 1 satisfying 300nm ≤ D 1 ≤ 2μm, preferably 500nm ≤ D 1 ≤ 1.5μm; and when the positive current collector has a tensile strain of 1.5%, the conductive layer has a sheet resistance growth rate of T ≤ 30%, preferably of T ≤ 15%, and more preferably of T ≤ 5%, as measured according to the description; and wherein the support layer comprises a polymeric material selected from PET; and wherein the conductive layer comprises a metal material selected from aluminum and aluminum alloy. a support layer having two surfaces opposite to each other in its thickness direction; a conductive layer arranged on at least one of the two surfaces of the support layer, wherein, the conductive layer has a thickness D 1 satisfying 300nm ≤ D 1 ≤ 2μm, preferably 500nm ≤ D 1 ≤ 1.5μm; and when the positive current collector has a tensile strain of 1.5%, the conductive layer has a sheet resistance growth rate of T ≤ 30%, preferably of T ≤ 15%, and more preferably of T ≤ 5%, as measured according to the description; and wherein the support layer comprises a polymeric material selected from PET; and wherein the conductive layer comprises a metal material selected from aluminum and aluminum alloy.
A structural tent, being of the type including a floor, two side faces or elevations, a front face and a rear face, and an upper roof, which tent includes a bearing structure on which there are arranged an inner covering and an outer covering, both being made of a textile material, between which there is defined an intermediate insulation chamber, characterized in that the inner covering made of fabric is part of a frame incorporating both the side faces or elevations and the floor of the tent into one piece, wherein there are assembled on said frame a plurality of profiles and lower posts , on which there are mechanically fixed second profiles and upper posts and which, together with brackets , determine a support structure for a ridgepole , such that outside the frame there is fixed a permeable outside fabric by means of eyelets arranged in said fabric and serving as a housing for turnbuckles and buttons present in the frame , there being defined between both coverings an insulating chamber in which a filler material is introduced; wherein in the upper roof there are included a plurality of plates with an alveolar structure which are supported on the ridgepole , and wherein said plates have gaps on their outer face where a fine granular material is deposited, the roof being finished in the upper part with an impermeable roof made of cloth or the like, fixed on the plates with an alveolar structure.
Device for the continuous transport of piecewise printing media with an endlessly circulating transport belt provided with first openings , the load strand of which can be driven in a transport direction (T) via a sliding table provided with second openings , wherein the sliding table , together with at least one peripheral wall, a front wall , and a rear wall , forms a suction chamber enclosing a space and is arranged on the load strand in such a way that the underside of the load strand slidable over the sliding table and printing media to be transported on its upper side can be subjected to a vacuum by the suction chamber via the corresponding openings , wherein the greatest width between the front wall and rear wall transverse to the transport direction (T) defines an effective width of the vacuum applicable to the load strand, wherein means for displacing the front and/or rear wall are provided for adjusting the effective width, such that the effective width is adjustable to printing media with a predetermined width transverse to the transport direction (T), characterized in that a cover is arranged on each of the opposite ends of at least one peripheral wall, so that the covers, together with the at least one peripheral wall, form a drawer , wherein the drawer and the device are configured such that the drawer is displaceable between an inserted working position, in which the drawer , together with the sliding table , forms the suction chamber, and a variably extended position, wherein the drawer is slidably arranged that it can be pulled out and pushed in either in one direction and thus unilaterally or in two opposite directions and thus bilaterally relative to the sliding table.
A process for loading ceramic particles having a spherical shape and a diameter ranging from 6 mm to 25 mm into a vertical reactor used in a chemical, petrochemical or petroleum refining process and having a diameter of at least 0.5m, which comprises: - introducing into the reactor a feeding pipe that is opened at its bottom part, said feeding pipe being vertical or having an angle of inclination with regard to vertical of at most 15 degrees, - inducing an upflow of air and/or nitrogen into said pipe from the bottom opening to the top thereof by using a vacuum system to suck air and/or nitrogen via a chamber attached to the top of the feeding pipe via a sealing clamp , and - once the air flow rate is established, pouring said ceramic particles into the pipe at the upper part thereof in such a way that said particles fall downwardly counter currently to said upflow of air and/or nitrogen, wherein the particles are fed into said pipe from a particle supply hopper , through a particle flow control device and then via chamber , characterized in that no physical device or air-supplying conduit is present inside the inner section of the feeding pipe , and in that the feeding pipe is introduced into the reactor so that the distance (d) between the lower exit of the pipe and the bottom of the reactor or the top of the particles bed in the case of a partially loaded reactor is at most 2 m. - introducing into the reactor a feeding pipe that is opened at its bottom part, said feeding pipe being vertical or having an angle of inclination with regard to vertical of at most 15 degrees, - inducing an upflow of air and/or nitrogen into said pipe from the bottom opening to the top thereof by using a vacuum system to suck air and/or nitrogen via a chamber attached to the top of the feeding pipe via a sealing clamp , and - once the air flow rate is established, pouring said ceramic particles into the pipe at the upper part thereof in such a way that said particles fall downwardly counter currently to said upflow of air and/or nitrogen, wherein the particles are fed into said pipe from a particle supply hopper , through a particle flow control device and then via chamber ,
An input generation system operable to generate motion data for a gaze tracking system, the system comprising: an input receiving unit operable to receive one or more non-gaze inputs; an input processing unit operable to generate motion data in dependence upon the received inputs, wherein the motion data comprises simulated gaze information; and an output unit operable to output the generated motion data, wherein the one or more inputs comprises information that is used to characterise the simulated gaze information, characterised in that the simulated gaze information comprises simulated eye motion for at least one eye. an input receiving unit operable to receive one or more non-gaze inputs; an input processing unit operable to generate motion data in dependence upon the received inputs, wherein the motion data comprises simulated gaze information; and an output unit operable to output the generated motion data, wherein the one or more inputs comprises information that is used to characterise the simulated gaze information, characterised in that the simulated gaze information comprises simulated eye motion for at least one eye.
A liquid crystal display device comprising: a first substrate ; a thin film transistor (TrA) on the first substrate ; a passivation layer on the thin film transistor (TrA); an electrode based on an oxide semiconductor on the passivation layer ; and an alignment layer on the electrode , wherein the electrode includes first portions and second portions , wherein the first portions have a semiconductor property and the second portions have a conductor property, wherein at least one of the second portions contacts at least one of the first portions , and a surface of the second portions is flush with a surface of the first portions . a first substrate ; a thin film transistor (TrA) on the first substrate ; a passivation layer on the thin film transistor (TrA); an electrode based on an oxide semiconductor on the passivation layer ; and an alignment layer on the electrode , wherein the electrode includes first portions and second portions , wherein the first portions have a semiconductor property and the second portions have a conductor property, wherein at least one of the second portions contacts at least one of the first portions , and a surface of the second portions is flush with a surface of the first portions .
Method for assembling an adjustable camshaft which comprises at least one shaft segment having an outer shaft and an inner shaft which extends concentrically through a through-hole (3.1) of the outer shaft having at least the steps: - prepositioning the inner shaft , wherein the inner shaft is at least partially introduced eccentrically into the through-hole (3.1) of the outer shaft , - introducing a positioning element in an introduction direction (E) through a first outer shaft hole (3.2, 3.3) which is formed in a peripheral wall of the outer shaft , an inner shaft hole (4.1) which extends orthogonally to the longitudinal axis of the inner shaft and a second outer shaft hole (3.2, 3.3) which is formed in a peripheral wall of the outer shaft in such a manner that the positioning element projects out of the second outer shaft hole (3.2, 3.3), - final positioning of the inner shaft , wherein the positioning element is moved counter to the introduction direction (E) in such a manner that the inner shaft is orientated concentrically inside the through-hole (3.1) of the outer shaft . - prepositioning the inner shaft , wherein the inner shaft is at least partially introduced eccentrically into the through-hole (3.1) of the outer shaft , - introducing a positioning element in an introduction direction (E) through a first outer shaft hole (3.2, 3.3) which is formed in a peripheral wall of the outer shaft , an inner shaft hole (4.1) which extends orthogonally to the longitudinal axis of the inner shaft and a second outer shaft hole (3.2, 3.3) which is formed in a peripheral wall of the outer shaft in such a manner that the positioning element projects out of the second outer shaft hole (3.2, 3.3), - final positioning of the inner shaft , wherein the positioning element is moved counter to the introduction direction (E) in such a manner that the inner shaft is orientated concentrically inside the through-hole (3.1) of the outer shaft .
A tool for machining an object , the tool comprising: a first part including a rotatable member comprising a turbine, the rotatable member being rotatable to cause rotation of a machine tool ; a second part comprising: a sensor to sense an object to be machined; and a cover defining an aperture and a fluid flow passage , the sensor being positioned within the cover and adjacent to the aperture ; a joint coupling the first part and the second part to enable relative movement between the first part and the second part ; and an energy transmission member comprising a conduit extending between the first part and the second part and across the joint , the conduit being arranged to receive fluid from the fluid flow passage and to provide the fluid to the turbine to cause rotation of the rotatable member . a first part including a rotatable member comprising a turbine, the rotatable member being rotatable to cause rotation of a machine tool ; a second part comprising: a sensor to sense an object to be machined; and a cover defining an aperture and a fluid flow passage , the sensor being positioned within the cover and adjacent to the aperture ; a joint coupling the first part and the second part to enable relative movement between the first part and the second part ; and an energy transmission member comprising a conduit extending between the first part and the second part and across the joint , the conduit being arranged to receive fluid from the fluid flow passage and to provide the fluid to the turbine to cause rotation of the rotatable member .
A method for powering down, and waking up from a deep sleep state , a portable battery-powered device using an asynchronous state machine, ASM , associated with the device, the method comprising: the ASM automatically detecting a request to wake up the device based on either a change in a status of a power user-interface element associated with the device or upon a detection of an attachment of an external power source to the device; in response to the request to wake up the device, the ASM automatically initiating a wake-up sequence including turning on a battery pack associated with the device; the ASM automatically detecting whether a power management function associated with the device is enabled and if the power management function is not enabled then the ASM enabling the power management function; and the ASM automatically transferring control of a remaining portion of the wake-up sequence to the power management function and the ASM passing the status of the power user-interface element to the power management function if the detecting the request to wake up the device is based on the change in the state of the power user-interface element associated with the device, wherein in the deep sleep state the device receives power for only the ASM and a real-time clock generating circuit associated with the device, and wherein the ASM performs a controlled power down if it detects signals indicating abnormal device conditions. the ASM automatically detecting a request to wake up the device based on either a change in a status of a power user-interface element associated with the device or upon a detection of an attachment of an external power source to the device; in response to the request to wake up the device, the ASM automatically initiating a wake-up sequence including turning on a battery pack associated with the device; the ASM automatically detecting whether a power management function associated with the device is enabled and if the power management function is not enabled then the ASM enabling the power management function; and the ASM automatically transferring control of a remaining portion of the wake-up sequence to the power management function and the ASM passing the status of the power user-interface element to the power management function if the detecting the request to wake up the device is based on the change in the state of the power user-interface element associated with the device, wherein in the deep sleep state the device receives power for only the ASM and a real-time clock generating circuit associated with the device, and wherein the ASM performs a controlled power down if it detects signals indicating abnormal device conditions.
A method for uplink contention-based transmission, the method comprising: selecting a pilot sequence from a pool of pilot sequences, the pilot sequence including a sequence of pilot values; and transmitting pilot values in the pilot sequence over at least two orthogonal frequency division multiplexed (OFDM) symbols in an uplink frame, at least a first subset of pilot values in the sequence of pilot values being transmitted in one of the at least two OFDM symbols and at least a second, distinct subset of the pilot values in the sequence of pilot values being transmitted in another one of the at least two OFDM symbols, wherein at least some pilot values in the sequence of pilot values are transmitted in non-consecutive OFDM symbols of the uplink frame. selecting a pilot sequence from a pool of pilot sequences, the pilot sequence including a sequence of pilot values; and transmitting pilot values in the pilot sequence over at least two orthogonal frequency division multiplexed (OFDM) symbols in an uplink frame, at least a first subset of pilot values in the sequence of pilot values being transmitted in one of the at least two OFDM symbols and at least a second, distinct subset of the pilot values in the sequence of pilot values being transmitted in another one of the at least two OFDM symbols, wherein at least some pilot values in the sequence of pilot values are transmitted in non-consecutive OFDM symbols of the uplink frame.