mhurhangee/patent-ind-claim-en huggingface dataset:
A system for wirelessly sensing a parameter from a remote location, comprising: a wireless reader configured to communicate with a wireless sensor ; a self-test device which emulates at least one electrical behavior of said wireless sensor in a known manner when placed in communication with said reader; wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response from said self-test device, and; wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader. a wireless reader configured to communicate with a wireless sensor ; a self-test device which emulates at least one electrical behavior of said wireless sensor in a known manner when placed in communication with said reader; wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response from said self-test device, and; wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader. wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response from said self-test device, and; wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader.
A knotless system for acromioclavicular surgical repairs, comprising: a fixation device comprising a cannulated anchor body and an eyelet ; a knotless suture construct pre-loaded on the fixation device , the knotless suture construct comprising a flexible strand , a flexible continuous loop with an adjustable diameter formed in the flexible strand , and two splice regions formed within the flexible continuous loop , the knotless suture construct extending through the cannulated anchor body and the eyelet , and with the flexible strand being further threaded through the eyelet to form two flexible loops ; wherein the knotless system comprises a pull suture threaded through the two loops but not attached to the fixation device and configured to shuttle the two loops through tunnels formed in a clavicle and a coracoid and out of an exit portal . a fixation device comprising a cannulated anchor body and an eyelet ; a knotless suture construct pre-loaded on the fixation device , the knotless suture construct comprising a flexible strand , a flexible continuous loop with an adjustable diameter formed in the flexible strand , and two splice regions formed within the flexible continuous loop , the knotless suture construct extending through the cannulated anchor body and the eyelet , and with the flexible strand being further threaded through the eyelet to form two flexible loops ; wherein the knotless system comprises a pull suture threaded through the two loops but not attached to the fixation device and configured to shuttle the two loops through tunnels formed in a clavicle and a coracoid and out of an exit portal .
A heat engine, particularly an ORC engine, with a crankcase and at least one working cylinder that is connected to the crankcase , in which cylinder a working piston that is rigidly connected to a piston rod can be moved and the end of the piston rod facing away from the working piston is connected to a connecting rod in an articulated manner by means of a crosshead running in the longitudinal direction of the piston rod , characterized in that the interior (B) of the working cylinder , which is loaded with a working medium, is separated from the interior (A) of the crankcase , which is loaded with oil, by two walls that respectively have a sealing through-opening for the piston rod , and in that a space (C) with an opening is formed between the walls separating the interiors (A, B).
Trim for a window pillar of a motor vehicle , comprising a lower part configured to be integrated in a dashboard of the vehicle, the lower part of the trim comprising a tongue extending in a longitudinal direction (X) and a transverse direction (Y), said tongue being configured to support a loudspeaker and comprising, in its thickness oriented in a vertical direction (Z) of the vehicle , a grille configured to deliver sounds generated by the loudspeaker , characterized in that the tongue is configured to support a loudspeaker oriented in a vertical direction (Z) and in that the grille is obtained by moulding the trim.
A die-cast component made of a temperable aluminum alloy with the following alloy components: from 5.0 to 9.0 wt% silicon (Si), from 0.25 to 0.5 wt% magnesium (Mg)and optionally up to 0.8 wt% manganese (Mn), from 0.08 to 0.35 wt% zinc (Zn), from 0.08 to 0.35 wt% chromium (Cr), up to 0.30 wt% zirconium (Zr), up to 0.25 wt% iron (Fe), up to 0.15 wt% titanium (Ti), up to 0.20 wt% copper (Cu), up to 0.025 wt% strontium (Sr), up to 0.2 wt% vanadium (V), up to 0.2 wt% molybdenum (Mo) and residual aluminum as well as inevitable production-related impurities, containing at most 0.05 wt% of each and at most 0.15 wt% collectively, wherein the die-cast component has a yield strength (R p0.2 ) of greater than 190 MPa and an elongation at break (A 5 ) of greater than or equal to 7% and the uniform elongation (A g ) and necking elongation (A z ) satisfy the condition A z ≥ A g /2. and residual aluminum as well as inevitable production-related impurities, containing at most 0.05 wt% of each and at most 0.15 wt% collectively, wherein the die-cast component has a yield strength (R p0.2 ) of greater than 190 MPa and an elongation at break (A 5 ) of greater than or equal to 7% and the uniform elongation (A g ) and necking elongation (A z ) satisfy the condition A z ≥ A g /2. has a yield strength (R p0.2 ) of greater than 190 MPa and an elongation at break (A 5 ) of greater than or equal to 7% and the uniform elongation (A g ) and necking elongation (A z ) satisfy the condition A z ≥ A g /2.
An apparatus comprising: an unmanned aerial vehicle ; a sensor system associated with the unmanned aerial vehicle , wherein the sensor system is configured to generate obstacle information and tree measurement information ; and a controller configured to identify obstacles from the obstacle information generated by the sensor system as the unmanned aerial vehicle flies through a group of trees to generate the tree measurement information for the group of trees and to control movement of the unmanned aerial vehicle to avoid the obstacles; wherein the tree measurement information comprises one or more diameters of the group of trees , and wherein the controller is configured to control movement of the unmanned aerial vehicle along a trajectory that is located between trees in the group of trees at a height that is below the canopy of the trees and is configured to allow measurements to be made for identifying diameter information for the group of trees . an unmanned aerial vehicle ; a sensor system associated with the unmanned aerial vehicle , wherein the sensor system is configured to generate obstacle information and tree measurement information ; and a controller configured to identify obstacles from the obstacle information generated by the sensor system as the unmanned aerial vehicle flies through a group of trees to generate the tree measurement information for the group of trees and to control movement of the unmanned aerial vehicle to avoid the obstacles; wherein the tree measurement information comprises one or more diameters of the group of trees , and wherein the controller is configured to control movement of the unmanned aerial vehicle along a trajectory that is located between trees in the group of trees at a height that is below the canopy of the trees and is configured to allow measurements to be made for identifying diameter information for the group of trees .
A flat mop having a front, resp. cleaning, side with a trimming or loop structure and a back, resp. wrapper, side, comprising at least one woven, knitted or machine-knitted layer on the front formed from microfiber material and at least one layer on the back, wherein at least one, preferably two, engagement pocket(s) for a flat mop holder is/are present on the back, characterized in that the at least one layer on the back is formed from a, in particular reinforced, nonwoven material, in particular comprising or consisting of polyolefin fibers, in particular polypropylene fibers.
A catheter assembly for delivering a marker into a lumen, the assembly comprising: a catheter having a proximal end and a distal end , wherein the distal end is configured to receive the marker and the catheter is configured to be passed into the lumen for deployment of the marker ; an actuator coupled to the proximal end of the catheter and moveable between a first position and a second position; and a flexible pusher member fixedly attached to the actuator , wherein the flexible pusher member includes an engagement member , is contained in the catheter and extends co-axially a length of the catheter ; characterized by : an anchorable marker assembly including the marker , a shell assembly around the marker and a plurality of fasteners or legs extending proximally, wherein, in the first position, the engagement member retains the plurality of fasteners or legs when the anchorable marker assembly is retained in the catheter prior to deployment and, in the second position, the engagement member is configured to deploy the anchorable marker assembly . a catheter having a proximal end and a distal end , wherein the distal end is configured to receive the marker and the catheter is configured to be passed into the lumen for deployment of the marker ; an actuator coupled to the proximal end of the catheter and moveable between a first position and a second position; and a flexible pusher member fixedly attached to the actuator , wherein the flexible pusher member includes an engagement member , is contained in the catheter and extends co-axially a length of the catheter ; characterized by : an anchorable marker assembly including the marker , a shell assembly around the marker and a plurality of fasteners or legs extending proximally, wherein, in the first position, the engagement member retains the plurality of fasteners or legs when the anchorable marker assembly is retained in the catheter prior to deployment and, in the second position, the engagement member is configured to deploy the anchorable marker assembly . an anchorable marker assembly including the marker , a shell assembly around the marker and a plurality of fasteners or legs extending proximally, wherein, in the first position, the engagement member retains the plurality of fasteners or legs when the anchorable marker assembly is retained in the catheter prior to deployment and, in the second position, the engagement member is configured to deploy the anchorable marker assembly .
A downhole tubular cutting system comprising: a cutter comprising an explosive material configured to cut a tubular ; a generator body coupled to the cutter on an end of the cutter such that the generator body will be oriented uphole or downhole of the cutter when the cutter is positioned within the tubular ; and a detonating cord or igniter fuse disposed around the generator body . a cutter comprising an explosive material configured to cut a tubular ; a generator body coupled to the cutter on an end of the cutter such that the generator body will be oriented uphole or downhole of the cutter when the cutter is positioned within the tubular ; and a detonating cord or igniter fuse disposed around the generator body .
A lamination device comprising: a power source unit; and a pattern roller including a rotation roller and a pattern cover , wherein the pattern roller is configured to embody a pattern on an electrode assembly, wherein the rotation roller is configured to emit heat supplied from the power source unit and to press a surface of the electrode assembly together with the heat, and the pattern cover comprises a pattern film for embodying the pattern and a deformation member , wherein the pattern film comprises an outer film and an inner film disposed on an inner surface of the outer film and having a width less than that of the outer film, the outer film has strength greater than that of the inner film , and the deformation member is made of a shape-memory alloy material and disposed in each of one or more opening grooves formed between a side portion of the inner film and the inner surface of the outer film in a direction perpendicular to an axis of the rotation roller. a power source unit; and a pattern roller including a rotation roller and a pattern cover , wherein the pattern roller is configured to embody a pattern on an electrode assembly, wherein the rotation roller is configured to emit heat supplied from the power source unit and to press a surface of the electrode assembly together with the heat, and the pattern cover comprises a pattern film for embodying the pattern and a deformation member ,
A method for performing a random access procedure between a user equipment and a radio base station in a mobile communication system, wherein the user equipment is configured with at least one unlicensed cell, the random access procedure being performed via the unlicensed cell having an unlicensed cell frequency bandwidth, wherein a minimum frequency bandwidth threshold is defined for transmissions via the unlicensed cell, wherein the method comprises the following steps performed by the user equipment for the random access procedure: selecting a random access preamble sequence for the random access procedure, the method further characterized by determining a frequency bandwidth for transmitting the random access preamble sequence via the unlicensed cell, the determined frequency bandwidth being at least the minimum frequency bandwidth threshold, and transmitting the random access preamble sequence to the radio base station such that at least the determined frequency bandwidth of the unlicensed cell is occupied, wherein the step of transmitting the random access preamble sequence is performed with a length of the random access preamble sequence and a subcarrier frequency spacing for frequency subcarriers used for transmitting the random access preamble sequence such that the transmission of the random access preamble sequence occupies at least the determined frequency bandwidth. wherein a minimum frequency bandwidth threshold is defined for transmissions via the unlicensed cell, wherein the method comprises the following steps performed by the user equipment for the random access procedure: selecting a random access preamble sequence for the random access procedure, the method further characterized by determining a frequency bandwidth for transmitting the random access preamble sequence via the unlicensed cell, the determined frequency bandwidth being at least the minimum frequency bandwidth threshold, and transmitting the random access preamble sequence to the radio base station such that at least the determined frequency bandwidth of the unlicensed cell is occupied, selecting a random access preamble sequence for the random access procedure, the method further characterized by determining a frequency bandwidth for transmitting the random access preamble sequence via the unlicensed cell, the determined frequency bandwidth being at least the minimum frequency bandwidth threshold, and transmitting the random access preamble sequence to the radio base station such that at least the determined frequency bandwidth of the unlicensed cell is occupied, wherein the step of transmitting the random access preamble sequence is performed with a length of the random access preamble sequence and a subcarrier frequency spacing for frequency subcarriers used for transmitting the random access preamble sequence such that the transmission of the random access preamble sequence occupies at least the determined frequency bandwidth.
A surgical tool for use in revision arthroplasty, adapted to be activated by torsional-mode ultrasonic vibrations, comprising elongate waveguide means adapted to transmit said ultrasonic vibrations to an operative head mounted adjacent a distal end of the waveguide means , characterised in that said operative head comprises a planar body extending transversely to a longitudinal axis of the elongate waveguide means , and a proximal face of said planar body is provided with a plurality of concave recesses , each said recess being adapted to focus and project torsional-mode ultrasonic vibrations into material such as bone cement in contact with said proximal face. said operative head comprises a planar body extending transversely to a longitudinal axis of the elongate waveguide means , and a proximal face of said planar body is provided with a plurality of concave recesses , each said recess being adapted to focus and project torsional-mode ultrasonic vibrations into material such as bone cement in contact with said proximal face.
Apparatus for monitoring a sample for TATP while simultaneously analyzing for different compounds, the apparatus comprising a delivery tube for delivering air as said sample, a plurality of ionization chambers each structured to receive an equal first portion of said sample from said delivery tube , one of the plurality of ionization chambers being structured to subject said first portion of the sample to a proton-transfer reaction to generate ions under ionization conditions to protonate TATP as a target material within said first portion of the sample, another of the plurality of ionization chambers being structured to subject said first portion of the sample to a proton-transfer reaction to generate ions under ionization conditions to protonate said different compound as a target material within said first portion of the sample, a mass spectrometer for receiving said protonated ions from each ionization chamber and determining the m/z for said sample, and each ionization chamber being structured to discharge unprotonated air to the atmosphere; wherein said mass spectrometer is structured to provide a reading of m/z values which is one of 223 or 240 and a fragment value of 91 when TATP is present in said sample; and a validation unit for processing, if it is determined that TATP is present in the sample, another portion of said sample to confirm the accuracy of the result obtained from the original portion of said sample. a delivery tube for delivering air as said sample, a plurality of ionization chambers each structured to receive an equal first portion of said sample from said delivery tube , one of the plurality of ionization chambers being structured to subject said first portion of the sample to a proton-transfer reaction to generate ions under ionization conditions to protonate TATP as a target material within said first portion of the sample, another of the plurality of ionization chambers being structured to subject said first portion of the sample to a proton-transfer reaction to generate ions under ionization conditions to protonate said different compound as a target material within said first portion of the sample, a mass spectrometer for receiving said protonated ions from each ionization chamber and determining the m/z for said sample, and each ionization chamber being structured to discharge unprotonated air to the atmosphere; wherein said mass spectrometer is structured to provide a reading of m/z values which is one of 223 or 240 and a fragment value of 91 when TATP is present in said sample; and a validation unit for processing, if it is determined that TATP is present in the sample, another portion of said sample to confirm the accuracy of the result obtained from the original portion of said sample.
Method for configuring vehicle functions, comprising: • recording at least one camera image by way of a camera (2; 3) arranged on a vehicle , • evaluating the camera image in order to identify an object (4; 5) depicted in the camera image, and • configuring a vehicle function based on the object (4; 5) identified in the camera image, • characterized in that the vehicle function is a vehicle function that is designed to have an active effect on the object (4; 5). • recording at least one camera image by way of a camera (2; 3) arranged on a vehicle , • evaluating the camera image in order to identify an object (4; 5) depicted in the camera image, and • configuring a vehicle function based on the object (4; 5) identified in the camera image, • characterized in that the vehicle function is a vehicle function that is designed to have an active effect on the object (4; 5).
A light therapy device configured to generate light free of an 810 nm wavelength to avoid activation of cytochrome c oxidase, the light having at least dual wavelengths that inhibit cytochrome c oxidase when applied to organic tissue that has experienced an ischemic event and that has a power density sufficient to penetrate a human patient's tissue, wherein the at least dual wavelengths are chosen from two of the following groups: approximately 730-770 nm, approximately 850-890 nm, approximately 880-920 nm, or approximately 930-970 nm.
A data storage system, comprising: a plurality of storage drives each comprising a Peripheral Component Interconnect Express, henceforth referred to as PCIe, interface , and configured to store data and retrieve the data stored on associated storage media responsive to storage operations; one or more processing modules comprising one or more processors communicatively coupled to the plurality of storage drives over a PCIe fabric comprised of one or more PCIe switches ; characterised in that the processors are configured to use a shared PCIe address space associated with the PCIe fabric for transfer of the storage operations to appropriate ones of the processors that manage ones of the plurality of storage drives; a first of the processors is configured to receive a first storage operation and identify a portion of the shared PCIe address space associated with a storage location indicated by the first storage operation; and based at least on the portion of the shared PCIe address space being associated with a second of the processors, the first of the processors is configured to transfer the first storage operation for delivery to the second of the processors over the PCIe fabric for handling of the storage operation with ones of the plurality of storage drives assigned to the second of the processors. a plurality of storage drives each comprising a Peripheral Component Interconnect Express, henceforth referred to as PCIe, interface , and configured to store data and retrieve the data stored on associated storage media responsive to storage operations; one or more processing modules comprising one or more processors communicatively coupled to the plurality of storage drives over a PCIe fabric comprised of one or more PCIe switches ; characterised in that the processors are configured to use a shared PCIe address space associated with the PCIe fabric for transfer of the storage operations to appropriate ones of the processors that manage ones of the plurality of storage drives; a first of the processors is configured to receive a first storage operation and identify a portion of the shared PCIe address space associated with a storage location indicated by the first storage operation; and based at least on the portion of the shared PCIe address space being associated with a second of the processors, the first of the processors is configured to transfer the first storage operation for delivery to the second of the processors over the PCIe fabric for handling of the storage operation with ones of the plurality of storage drives assigned to the second of the processors.