mhurhangee/patent-ind-claim-en huggingface dataset:
An acceleration transducer for measuring an acceleration data of a target device , the acceleration transducer comprising: - a transducer body to accommodate an electronic assembly ; - the electronic assembly arranged inside the transducer body, wherein the electronic assembly comprises a printed circuit board , a processor , a radio transmitter , a memory unit and a power source; - a fastener having a cavity , wherein the fastener is arrangeable into a portion of the target device and the cavity is filled with a filler ; - an accelerometer arranged in the cavity, wherein the accelerometer is configured to measure the acceleration data, and wherein the filler is configured to retain the accelerometer therein; and - a communication means connecting the accelerometer with the electronic assembly for transmitting the measured acceleration data of the target device to the electronic assembly, wherein the fastener comprises: - a first part , wherein the first part being coupled to the transducer body , and wherein the first part of the fastener includes a recess for receiving an open end of the transducer body ; and - a second part having the cavity , wherein the second part being coupable to the portion of the target device , wherein the second part of the fastener includes threads for being threadably coupled into the portion of the target device, wherein the open end of the transducer body is coupled with a recess of the second part, thereby closing the open end of the transducer body with the electronic assembly arranged inside the transducer body, and wherein the transducer body is detachably coupled to the second part of the fastener. - a transducer body to accommodate an electronic assembly ; - the electronic assembly arranged inside the transducer body, wherein the electronic assembly comprises a printed circuit board , a processor , a radio transmitter , a memory unit and a power source; - a fastener having a cavity , wherein the fastener is arrangeable into a portion of the target device and the cavity is filled with a filler ; - an accelerometer arranged in the cavity, wherein the accelerometer is configured to measure the acceleration data, and wherein the filler is configured to retain the accelerometer therein; and - a communication means connecting the accelerometer with the electronic assembly for transmitting the measured acceleration data of the target device to the electronic assembly, - a first part , wherein the first part being coupled to the transducer body , and wherein the first part of the fastener includes a recess for receiving an open end of the transducer body ; and - a second part having the cavity , wherein the second part being coupable to the portion of the target device , wherein the second part of the fastener includes threads for being threadably coupled into the portion of the target device, wherein the open end of the transducer body is coupled with a recess of the second part, thereby closing the open end of the transducer body with the electronic assembly arranged inside the transducer body, and wherein the transducer body is detachably coupled to the second part of the fastener.
A tilting mechanism for a chair , comprising a first sub-frame in contact with the ground during use and connectable to a back , seat and footrest of the chair , and a second sub-frame in contact with the ground during use and pivotally connected to the first sub-frame , wherein the first and second sub-frames are pivotally rotated with respect to each other by an electric motor driving a linear actuator connected between the first and second sub-frames , characterised in that the pivotal rotation of the first and second sub-frames with respect to each other effects a tilting of the back , seat and footrest of the chair during use putting the chair in a zero gravity position.
A data reduction method, wherein the method is applied to a storage device , the storage device comprises at least a first logical unit and a second logical unit, the first logical unit and the second logical unit are configured to provide storage space for an application, and the method comprises: obtaining (S301) a first service type of first data stored in the first logical unit ; processing (S302) the first data based on a first data reduction manner that matches the first service type, wherein the first data reduction manner comprises data compression and/or data deduplication; obtaining (S303) a second service type of second data stored in the second logical unit, wherein the second service type is different from the first service type; and processing (S304) the second data based on a second data reduction manner that matches the second service type, wherein the second data reduction manner comprises data compression and/or data deduplication, wherein the first data reduction manner is different from the second data reduction manner; the method characterised in that : the first data comprises a plurality of first data blocks, and the obtaining a first service type of first data stored in the first logical unit comprises: obtaining one or more sample data blocks in the plurality of first data blocks; and determining the first service type of the first data based on a service type of the one or more sample data blocks. obtaining (S301) a first service type of first data stored in the first logical unit ; processing (S302) the first data based on a first data reduction manner that matches the first service type, wherein the first data reduction manner comprises data compression and/or data deduplication; obtaining (S303) a second service type of second data stored in the second logical unit, wherein the second service type is different from the first service type; and processing (S304) the second data based on a second data reduction manner that matches the second service type, wherein the second data reduction manner comprises data compression and/or data deduplication, wherein the first data reduction manner is different from the second data reduction manner; the method characterised in that : the first data comprises a plurality of first data blocks, and the obtaining a first service type of first data stored in the first logical unit comprises: obtaining one or more sample data blocks in the plurality of first data blocks; and determining the first service type of the first data based on a service type of the one or more sample data blocks. obtaining one or more sample data blocks in the plurality of first data blocks; and determining the first service type of the first data based on a service type of the one or more sample data blocks.
An electrochemical infrastructure system comprising a system for providing an excitation signal, and an electrochemical system , said excitation signal is used in Electrochemical Impedance Spectroscopy diagnostics on said electrochemical system , said system comprising a power stage being a charger for said electrochemical system and connectable to said electrochemical system via a main power bus for supplying electrical energy to said electrochemical system via the main power bus , said power stage being a part of a vehicle drive train or power electronics connectable to said electrochemical system , said electrochemical system further comprising an Individual Response Analyzer for measuring the impedance of the electrochemical system in response to said excitation signal, said Individual Response Analyzer further being adapted for determining diagnostics of said electrochemical system based on said impedance, said power stage comprising an Excitation Generation Unit , said Excitation Generation Unit is adapted for instructing said power stage to generate said excitation signal for use in said Electrochemical Impedance Spectroscopy diagnostics, said power stage is adapted for generating said excitation signal and supplying said excitation signal to said electrochemical system via the main power bus when so instructed by said Excitation Generation Unit , said system further comprising a System Response Analyzer for measuring the impedance of the electrochemical system in response to said excitation signal, said System Response Analyzer being adapted for determining diagnostics of said electrochemical system based on said impedance. said excitation signal is used in Electrochemical Impedance Spectroscopy diagnostics on said electrochemical system , said system comprising a power stage being a charger for said electrochemical system and connectable to said electrochemical system via a main power bus for supplying electrical energy to said electrochemical system via the main power bus , said power stage being a part of a vehicle drive train or power electronics connectable to said electrochemical system , said electrochemical system further comprising an Individual Response Analyzer for measuring the impedance of the electrochemical system in response to said excitation signal, said Individual Response Analyzer further being adapted for determining diagnostics of said electrochemical system based on said impedance, said power stage comprising an Excitation Generation Unit , said Excitation Generation Unit is adapted for instructing said power stage to generate said excitation signal for use in said Electrochemical Impedance Spectroscopy diagnostics, said power stage is adapted for generating said excitation signal and supplying said excitation signal to said electrochemical system via the main power bus when so instructed by said Excitation Generation Unit , said system further comprising a System Response Analyzer for measuring the impedance of the electrochemical system in response to said excitation signal, said System Response Analyzer being adapted for determining diagnostics of said electrochemical system based on said impedance.
An aircraft landing gear comprising: a shock-absorbing main leg having a sprung part for attachment to an aircraft and an un-sprung part including a slider and an axle carrying at least one wheel , the wheel having a toothed ring gear ; a drive transmission mounted externally on the sprung part, or on the un-sprung part, of the main leg, the drive transmission having at least one motor and a drive pinion for meshing with the toothed ring of the wheel; and an actuator for lifting the drive transmission into and out of driving engagement with the toothed ring and for maintaining the driving engagement as the landing gear deflects during a ground taxiing operation, wherein the drive transmission is detachably mounted, wherein the drive transmission is supported by an articulating mechanism and wherein the articulating mechanism and the actuator are mounted on the main leg by mounting brackets , and wherein the mounting brackets include release mechanisms to permit detachment of the articulating mechanism and actuator from the main leg and wherein the articulating mechanism and the actuator are mounted in flexible or spherical bearings in the mounting brackets. a shock-absorbing main leg having a sprung part for attachment to an aircraft and an un-sprung part including a slider and an axle carrying at least one wheel , the wheel having a toothed ring gear ; a drive transmission mounted externally on the sprung part, or on the un-sprung part, of the main leg, the drive transmission having at least one motor and a drive pinion for meshing with the toothed ring of the wheel; and an actuator for lifting the drive transmission into and out of driving engagement with the toothed ring and for maintaining the driving engagement as the landing gear deflects during a ground taxiing operation, wherein the drive transmission is detachably mounted, wherein the drive transmission is supported by an articulating mechanism and wherein the articulating mechanism and the actuator are mounted on the main leg by mounting brackets , and wherein the mounting brackets include release mechanisms to permit detachment of the articulating mechanism and actuator from the main leg and wherein the articulating mechanism and the actuator are mounted in flexible or spherical bearings in the mounting brackets.
Blood collection container with a suction nozzle at the top for connecting a drainage hose and a suction nozzle for connecting the suction hose of a vacuum connection, wherein the blood collection container has a discharge nozzle at the bottom for discharging collected wound blood via a blood discharge hose to a blood purification device, and further in that the blood collection container for wound blood contains an agent for inhibiting blood coagulation in sufficient quantity for a full volume of blood which the container can hold, and is sterilised as a whole and is packed in a delivery bag which is sterilely sealed by means of a hermetic closure , for opening in the operating theatre shortly before use.
An optical tracking system for medical applications, with an optical tracking unit comprising at least one sensor , a processing unit and energy providing means , the optical tracking unit, the sensor and the processing unit being integrated in a single housing, said system further comprising at least one marker to be attached to an object or to a person; wherein said at least one marker comprises at least one embedded sensor configured to provide embedded sensor data; separate or remote display means receiving data at least from said tracking unit; wireless communication means connecting at least said tracking unit with said display means and allowing data to be transmitted between said tracking unit and said display means , wherein said sensor is configured to detect said marker and generate sensor data, wherein the processing unit is configured to generate position and/or orientation data of said marker relatively to said tracking unit by data processing the sensor data, and wherein the wireless communication means is configured to transmit the position and/or orientation data to the display means such that data transmission between the tracking unit and the display means is optimized to a communication channel of the wireless communication means , wherein said at least one marker comprises fiducials comprising light generating elements, wherein the light generating elements are both used to transmit the embedded sensor data and used as fiducials during a sensing phase. at least one marker to be attached to an object or to a person; wherein said at least one marker comprises at least one embedded sensor configured to provide embedded sensor data; separate or remote display means receiving data at least from said tracking unit; wireless communication means connecting at least said tracking unit with said display means and allowing data to be transmitted between said tracking unit and said display means , wherein said sensor is configured to detect said marker and generate sensor data, wherein the processing unit is configured to generate position and/or orientation data of said marker relatively to said tracking unit by data processing the sensor data, and wherein the wireless communication means is configured to transmit the position and/or orientation data to the display means such that data transmission between the tracking unit and the display means is optimized to a communication channel of the wireless communication means , wherein said at least one marker comprises fiducials comprising light generating elements, wherein the light generating elements are both used to transmit the embedded sensor data and used as fiducials during a sensing phase.
Door-stopping unit having at least one holding bar , at least one locking rocker , which rests on the holding bar , and at least one housing , wherein the locking rocker is movably mounted in or on the housing , characterised in that the locking rocker has at least one resilient and/or elastic element which is provided at least in part with at least one plastics casing , wherein an end of the at least one resilient and/or elastic element is received in the material of the housing .
An intraluminal imaging system , comprising: a patient interface module PIM in communication with an intraluminal device comprising an ultrasound imaging component , a wireless router via a signal link , and a computing device in wireless communication with the wireless router, wherein the PIM comprises: a processing component configured to: receive an ultrasound echo signal from the ultrasound imaging component ; and determine image data based on at least the ultrasound echo signal; and a power and communication component configured to: receive power from the signal link ; and transmit, to the computing device via the signal link and the wireless router, the image data, and to provide the power received from the signal link to the ultrasound imaging component of the intraluminal device and/or to the processing component. a processing component configured to: receive an ultrasound echo signal from the ultrasound imaging component ; and determine image data based on at least the ultrasound echo signal; and receive an ultrasound echo signal from the ultrasound imaging component ; and determine image data based on at least the ultrasound echo signal; and a power and communication component configured to: receive power from the signal link ; and transmit, to the computing device via the signal link and the wireless router, the image data, and to provide the power received from the signal link to the ultrasound imaging component of the intraluminal device and/or to the processing component. receive power from the signal link ; and transmit, to the computing device via the signal link and the wireless router, the image data, and to provide the power received from the signal link to the ultrasound imaging component of the intraluminal device and/or to the processing component.
A breathing protector for use in a stoma of a laryngectomized or tracheotomised person, said breathing protector having at least one inlet and at least one outlet , such that an air flow in use will pass from the surroundings of said person through said at least one inlet to said at least one outlet , into trachea of said person, said breathing protector comprising a heat and moisture exchanger, HME, and an air filter , such that said air flow will pass through said HME and said air filter when said air flow in use passes through said at least one inlet to said outlet , wherein said breathing protector having a housing which comprises of an upper part and a lower part , wherein said at least one inlet is provided in said upper part of the housing and said at least one outlet is provided in said lower part of the housing, and wherein said HME and said air filter are enclosed by said housing, wherein said upper part of the housing is provided with a closing member which can be activated to close the communication between said at least one inlet and said at least one outlet via a closing valve proximally of the air filter characterized in that the closing member is separate from, and positioned in an opening of, the upper part of the housing.
Connector for connecting electrical conductors comprising a contact end-fitting at their end to be connected, comprising two conjugate parts , respectively male and female, each comprising a body made of insulating material provided with housings into which respectively male and female contacts capable of receiving the contact end-fittings of the conductors come to be mounted, characterized in that at least one of the male and female parts comprises, internally, partitions extending between said housings and produced from a thermosetting polymer material having a CTI index greater than or equal to 600 capable of withstanding electrical discharges.
A support structure of a drive shaft in which a power transmission mechanism (A) transmitting a power of a power source and a driving wheel (WR) are fixed to a drive shaft rotatably supported by a support portion provided in a saddle type vehicle , wherein a female screw portion is formed in an inner peripheral surface of a hollow portion formed at an end portion of the drive shaft , and the power transmission mechanism (A) is fixed to the drive shaft by fastening a bolt screwed with the female screw portion , characterized in that the power transmission mechanism (A) includes a hub damper case arranged at an end portion of the drive shaft , and the hub damper case is rotatably supported by the drive shaft via a bearing , and when the bolt is screwed with the drive shaft , a male screw portion of the bolt extends to a position where it overlaps the bearing in the axial direction.
A method of determining the spatial orientation of a two-dimensional detector in an X-ray diffractometry system used for detecting X-ray energy diffracted from a sample at a sample location, the method comprising: locating a polycrystalline material at the sample location; directing an X-ray beam toward the polycrystalline material such that diffracted X-ray energy is output therefrom; detecting a first diffraction pattern formed by the diffracted X-ray energy with the detector positioned at a first swing angle defined between the direction of the X-ray beam and a line from a center of a detection surface of the detector to the sample; detecting a second diffraction pattern formed by the diffracted X-ray energy with the detector positioned at a second swing angle different from the first swing angle; and comparing the detected positions of the first and second diffraction patterns on the detection surface and determining said spatial orientation in response thereto; wherein comparing the detected positions of the first and second diffraction patterns on the detection surface comprises locating points of intersection between the first and second diffraction patterns and comparing the relative positions of those intersection points to anticipated relative positions corresponding to a known detector orientation. locating a polycrystalline material at the sample location; directing an X-ray beam toward the polycrystalline material such that diffracted X-ray energy is output therefrom; detecting a first diffraction pattern formed by the diffracted X-ray energy with the detector positioned at a first swing angle defined between the direction of the X-ray beam and a line from a center of a detection surface of the detector to the sample; detecting a second diffraction pattern formed by the diffracted X-ray energy with the detector positioned at a second swing angle different from the first swing angle; and comparing the detected positions of the first and second diffraction patterns on the detection surface and determining said spatial orientation in response thereto; wherein comparing the detected positions of the first and second diffraction patterns on the detection surface comprises locating points of intersection between the first and second diffraction patterns and comparing the relative positions of those intersection points to anticipated relative positions corresponding to a known detector orientation.