mhurhangee/patent-ind-claim-en huggingface dataset:
A method of sensor provisioning in a wireless network, the method comprising: determining , at a gateway , that no neighboring gateway is present, the determining being based on received first signal strengths of other gateways being below a threshold; in response to determining that no neighboring gateway is present, starting, by the gateway , a sensor discovery process, wherein the sensor discovery process comprises: measuring second signal strengths from one or more sensors; based on the measured second signal strengths from the one or more sensors, identifying a sensor from the one or more sensors to be paired with the gateway ; and in response to identifying the sensor, pairing the gateway and the sensor to establish a secured connection between the gateway and the sensor. determining , at a gateway , that no neighboring gateway is present, the determining being based on received first signal strengths of other gateways being below a threshold; in response to determining that no neighboring gateway is present, starting, by the gateway , a sensor discovery process, wherein the sensor discovery process comprises: measuring second signal strengths from one or more sensors; based on the measured second signal strengths from the one or more sensors, identifying a sensor from the one or more sensors to be paired with the gateway ; and in response to identifying the sensor, pairing the gateway and the sensor to establish a secured connection between the gateway and the sensor. measuring second signal strengths from one or more sensors; based on the measured second signal strengths from the one or more sensors, identifying a sensor from the one or more sensors to be paired with the gateway ; and in response to identifying the sensor, pairing the gateway and the sensor to establish a secured connection between the gateway and the sensor.
Method for producing a compression garment for a limb of a patient, wherein at least one production value for producing a custom tailored compression garment for a limb , wherein the production value is associated with at least one measurement position along the length of the limb , is determined by performing the steps of: - receiving a three dimensional dataset of the limb acquired using a 3D scan device , - evaluating the dataset to derive at least one reference information describing the position (1-14) of an anatomical feature of the limb along the length of the limb , - determining the at least one measurement position for the at least one production value in the three dimensional dataset using at least one rule of a rule set , wherein each rule relates at least one reference information to at least one measurement position, and wherein at least one rule defines a measurement position depending on at least one position of an anatomical feature of at least one reference information, such that at least one of the at least one measurement position is calculated or otherwise derived from the position of the anatomical feature, - determining the at least one production value from the three dimensional dataset at the at least one determined measurement position, whereafter the compression garment is automatically produced by a garment production apparatus using the at least one production value. - receiving a three dimensional dataset of the limb acquired using a 3D scan device , - evaluating the dataset to derive at least one reference information describing the position (1-14) of an anatomical feature of the limb along the length of the limb , - determining the at least one measurement position for the at least one production value in the three dimensional dataset using at least one rule of a rule set , wherein each rule relates at least one reference information to at least one measurement position, and wherein at least one rule defines a measurement position depending on at least one position of an anatomical feature of at least one reference information, such that at least one of the at least one measurement position is calculated or otherwise derived from the position of the anatomical feature, - determining the at least one production value from the three dimensional dataset at the at least one determined measurement position,
Toothed wheel comprising a plastics body, in the interior of which there is arranged a metal insert for stabilization purposes, wherein the plastics body has a hook for holding a retraction spring , which is formed by a part of the metal insert which is overmoulded with plastic, wherein the metal insert has a disc-like base from which an arm which forms the hook extends radially, characterized in that the arm extends, proceeding from the disc-like base , in the plane of the latter and then perpendicular to the base , in that the arm is equipped, at its end, with the hook , and in that the arm is bent at right angles, such that the hook is arranged at the end of that arm portion which runs parallel to the toothed-wheel axis.
A detector for detecting a hazardous safety condition, the detector comprising: a housing ; an electrochromic material disposed within the housing; and a battery providing a power source in operative electrical communication with the electrochromic material, the electrochromic material providing a visual display to indicate a condition of the detector; characterised in that the condition of the detector is an end of life battery condition; and in that the visual display to indicate the end of life battery condition is maintained after the battery has reached the end of life condition. a housing ; an electrochromic material disposed within the housing; and a battery providing a power source in operative electrical communication with the electrochromic material, the electrochromic material providing a visual display to indicate a condition of the detector; characterised in that the condition of the detector is an end of life battery condition; and in that the visual display to indicate the end of life battery condition is maintained after the battery has reached the end of life condition.
Compressed air handpiece including a handle , which is connected to a head , which houses a turbine , the turbine including a moving wheel from a periphery of which extend a plurality of blades which define an outer diameter of the moving wheel , the handpiece also including injection means, whose function is to direct onto the blades of the moving wheel a compressed air flow whose pneumatic energy is converted into kinetic energy when the compressed air flow strikes the blades of the moving wheel , the handpiece further including a discharge pipe , arranged in the handle of the handpiece and through which the air is discharged after striking the blades of the moving wheel , the discharge pipe communicating with the head through an opening which is at least facing the area in which the compressed air strikes the blades of the moving wheel , the compressed air injection means extending inside the discharge pipe , the handpiece being characterized in that said opening completely surrounds the compressed air injection means, the compressed air injection means being in the form of an insert inside which is arranged a compressed air flow feed pipe and which is placed inside the handle of the handpiece .
Sheet or strip of cold rolled and annealed ferrous alloy , its composition consists of, in weight percentages: - traces ≤ C ≤ 0.2%, preferably traces ≤ C ≤ 0.05%, more preferably traces ≤ C ≤ 0.015%; - traces ≤ Co ≤ 40%; - if Co ≥ 35%, traces ≤ Si ≤ 1.0%; - if traces ≤ Co < 35%, traces ≤ Si ≤ 3.5%; - if traces ≤ Co < 35%, Si + 0.6% Al ≤ 4.5 - 0.1% Co, preferably Si + 0.6% Al ≤ 3.5 - 0.1% Co; - traces ≤ Cr ≤ 10%; - traces ≤ V + W + Mo + Ni ≤ 4%, preferably ≤ 2%; - traces ≤ Mn ≤ 4%, preferably ≤ 2%; - traces ≤ Al ≤ 3%, preferably ≤ 1%; - traces ≤ S ≤ 0.005%; - traces ≤ P ≤ 0.007%; - traces ≤ Ni ≤ 3%, preferably ≤ 0.3%; - traces ≤ Cu ≤ 0.5%, preferably ≤ 0.05%; - traces ≤ Nb ≤ 0.1%, preferably ≤ 0.01%; - traces ≤ Zr ≤ 0.1%, preferably ≤ 0.01%; - traces ≤ Ti ≤ 0.2%; - traces ≤ N ≤ 0.01%; - traces ≤ Ca ≤ 0.01%; - traces ≤ Mg ≤ 0.01%; - traces ≤ Ta ≤ 0.01 %; - traces ≤ B ≤ 0.005%; - traces ≤ O ≤ 0.01%; the remainder being iron and impurities resulting from the preparation, characterized in that , for an induction of 1.8 T, the maximum difference (Max Δλ) between the magnetostriction deformation amplitudes λ, measured parallel to the magnetic field (Ha) applied (λ//H) and perpendicular to the magnetic field (Ha) applied (λ ⊥ H) on three rectangular samples of the said sheet or strip, whose long sides are respectively parallel to the direction of rolling (DL) of the said sheet or strip, parallel to the transverse direction (DT) of the said sheet or strip, and parallel to the direction forming an angle of 45° with the said rolling direction (DL), and with the said transverse direction (DT), is at most 25ppm, in that its recrystallization rate is 80 to 100% and in that it comprises not more than 30% of any {hkl}<uvw> texture component defined by a disorientation of less than 15° from a defined crystallographic orientation {h 0 k 0 l 0 }<u 0 v 0 w 0 >, the texture component and the difference between the magnetostriction deformation amplitudes being measured according to the description. - traces ≤ C ≤ 0.2%, preferably traces ≤ C ≤ 0.05%, more preferably traces ≤ C ≤ 0.015%; - traces ≤ Co ≤ 40%; - if Co ≥ 35%, traces ≤ Si ≤ 1.0%; - if traces ≤ Co < 35%, traces ≤ Si ≤ 3.5%; - if traces ≤ Co < 35%, Si + 0.6% Al ≤ 4.5 - 0.1% Co, preferably Si + 0.6% Al ≤ 3.5 - 0.1% Co; - traces ≤ Cr ≤ 10%; - traces ≤ V + W + Mo + Ni ≤ 4%, preferably ≤ 2%; - traces ≤ Mn ≤ 4%, preferably ≤ 2%; - traces ≤ Al ≤ 3%, preferably ≤ 1%; - traces ≤ S ≤ 0.005%; - traces ≤ P ≤ 0.007%; - traces ≤ Ni ≤ 3%, preferably ≤ 0.3%; - traces ≤ Cu ≤ 0.5%, preferably ≤ 0.05%; - traces ≤ Nb ≤ 0.1%, preferably ≤ 0.01%; - traces ≤ Zr ≤ 0.1%, preferably ≤ 0.01%; - traces ≤ Ti ≤ 0.2%; - traces ≤ N ≤ 0.01%; - traces ≤ Ca ≤ 0.01%; - traces ≤ Mg ≤ 0.01%; - traces ≤ Ta ≤ 0.01 %; - traces ≤ B ≤ 0.005%; - traces ≤ O ≤ 0.01%;
Roof element, in particular an interior ceiling board for the roof of a vehicle, to improve the rigidity of said roof comprising a piece of corrugated board , comprising at least one top cover , at least one flute and one bottom cover , and at least one shock-absorbing piece capable of absorbing vibrations, said shock-absorbing piece being attached to the piece of corrugated board , characterised in that the piece of corrugated board comprises at least one pre-cut line and/or groove produced on at least one of the sides of said piece of corrugated board in order to allow easier folding of the roof element during installation of said roof element.
A method of a first device in a wireless local area network, WLAN, system supporting a multi-user transmission scheme, the method comprising: transmitting , to at least one of second devices , a signal including information related to a number of resource allocation request messages to be received by the first device during a time interval and information related to the at least one of second devices , receiving , from one or more of the at least one of the second devices , at least one resource allocation request message during the time interval, transmitting , to the one or more of the at least one of second devices , scheduling information for the one or more of the at least one of the second devices , receiving an uplink signal from each of the one of more of the at least one of the second devices , transmitting an acknowledgement signal to each of the one or more of the at least one of the second devices from which an uplink signal was received, and transmitting a group acknowledgement signal to the remaining of the at least one of the second devices from which a resource allocation request message and an uplink signal were not received, wherein at least one normally received resource allocation request message is counted as the received at least one resource allocation request message, and wherein the number of resource allocation request messages to be received by the first device during the time interval is determined based on a number of antennas of the first device . transmitting , to at least one of second devices , a signal including information related to a number of resource allocation request messages to be received by the first device during a time interval and information related to the at least one of second devices , receiving , from one or more of the at least one of the second devices , at least one resource allocation request message during the time interval, transmitting , to the one or more of the at least one of second devices , scheduling information for the one or more of the at least one of the second devices , receiving an uplink signal from each of the one of more of the at least one of the second devices , transmitting an acknowledgement signal to each of the one or more of the at least one of the second devices from which an uplink signal was received, and transmitting a group acknowledgement signal to the remaining of the at least one of the second devices from which a resource allocation request message and an uplink signal were not received, wherein at least one normally received resource allocation request message is counted as the received at least one resource allocation request message, and wherein the number of resource allocation request messages to be received by the first device during the time interval is determined based on a number of antennas of the first device .
A vaccine composition comprising: an adjuvant composition comprising a medium chain triglyceride, a polymer of acrylic or methacrylic acid, cholesterol, and a saponin; and an antigen, wherein the adjuvant does not comprise lecithin. an adjuvant composition comprising a medium chain triglyceride, a polymer of acrylic or methacrylic acid, cholesterol, and a saponin; and an antigen, wherein the adjuvant does not comprise lecithin.
An image-based risk score predictor method for measuring cancer extent to evaluate disease outcome in cancer patients using digitized histopathology comprising: i. scanning a stained histopathology slide into a computer using a high resolution 5 whole slide scanner to obtain an image; ii. detecting cancer nuclei using an Expectation-Maximization based algorithm; iii. constructing Delaunay Triangulation and Minimum Spanning Tree graphs using the centers of individual detected cancer nuclei as vertices; iv. extracting image-derived features describing the arrangement of the cancer 10 nuclei from each image based on the Delaunay Triangulation and Minimum Spanning Tree graphs; v. projecting a high-dimensional feature vector derived from the extracted image-derived features into a reduced 3D embedding space via Graph Embedding; vi. projecting the data in the 3D embedding into a 1D scale to define image-based 15 risk scores for poor, intermediate, and good outcome; vii. determining an image-based recurrence score to distinguish between low, intermediate, and high cancer grades by uncovering the grade labels of the samples on the 1D line and their relative locations to predict prognosis. i. scanning a stained histopathology slide into a computer using a high resolution 5 whole slide scanner to obtain an image; ii. detecting cancer nuclei using an Expectation-Maximization based algorithm; iii. constructing Delaunay Triangulation and Minimum Spanning Tree graphs using the centers of individual detected cancer nuclei as vertices; iv. extracting image-derived features describing the arrangement of the cancer 10 nuclei from each image based on the Delaunay Triangulation and Minimum Spanning Tree graphs; v. projecting a high-dimensional feature vector derived from the extracted image-derived features into a reduced 3D embedding space via Graph Embedding; vi. projecting the data in the 3D embedding into a 1D scale to define image-based 15 risk scores for poor, intermediate, and good outcome; vii. determining an image-based recurrence score to distinguish between low, intermediate, and high cancer grades by uncovering the grade labels of the samples on the 1D line and their relative locations to predict prognosis.
A method for controlling a mixing ratio of fuel gas and air, each having a different thermal conductivity, for a heating appliance , wherein a fuel gas mass flow and an air mass flow are each provided separately and merged into a total mass flow , wherein the air mass flow is divided at least into a first and a second partial air mass flow before merging with the gas mass flow, wherein the second partial air mass flow, with respect to its air mass, is smaller than the first partial air mass flow by a predetermined value, wherein initially exclusively the second partial air mass flow is merged with the gas mass flow and mixed to form a premixture , characterized in that material properties of the premixture of the second partial air mass flow and the gas mass flow are detected via a sensor (S) and a premixing ratio of the premixture is determined therefrom, wherein the mixing ratio of fuel gas and air in the total mass flow is calculated and controlled from the premixing ratio via the predetermined value of the difference in size of the first and second partial air mass flows.
An antiferromagnetic alloy having a composition constituted of: • 10.0% to 30.0% by weight manganese, • 4.0% to 10.0% by weight chromium, • 5.0% to 15.0% by weight nickel, • 0.1% to 2.0% by weight titanium, • the remainder being iron and residual impurities, • the alloy being free of beryllium. • 10.0% to 30.0% by weight manganese, • 4.0% to 10.0% by weight chromium, • 5.0% to 15.0% by weight nickel, • 0.1% to 2.0% by weight titanium, • the remainder being iron and residual impurities, • the alloy being free of beryllium.
Magnetic-inductive antenna , for a hearing instrument , - with a first antenna surface and a second antenna surface , which are each formed from magnetic, flexible foil , - with a base formed from a magnetic material or comprising a magnetic layer , which connects the two antenna surfaces to each other, the two antenna surfaces being angled away from the base in the same direction, and - with an antenna winding , characterized in that the antenna winding has at least one first single-layer spiral coil , which is arranged, in particular mounted, on the outside of the first antenna surface , so that an axis of the first spiral coil is aligned perpendicularly with respect to the first antenna surface . - with a first antenna surface and a second antenna surface , which are each formed from magnetic, flexible foil , - with a base formed from a magnetic material or comprising a magnetic layer , which connects the two antenna surfaces to each other, the two antenna surfaces being angled away from the base in the same direction, and - with an antenna winding , characterized in that the antenna winding has at least one first single-layer spiral coil , which is arranged, in particular mounted, on the outside of the first antenna surface , so that an axis of the first spiral coil is aligned perpendicularly with respect to the first antenna surface .
An apparatus comprising: a directional coupler ; and an absorptive low pass filter , wherein the directional coupler comprises a first transmission line extending from a first port of the directional coupler to a second port of the directional coupler and comprises a second transmission line extending from a third port of the directional coupler to a fourth port of the directional coupler , wherein the first transmission line and the second transmission line are configured such that a portion of a signal travelling from the first port of the directional coupler onto the first transmission line is coupled to the second transmission line and towards the third port of the directional coupler , and wherein the second port of the directional coupler is connected to the fourth port of the directional coupler via the absorptive low pass filter , such that when the signal is input into the first port of the directional coupler and output through the third port of the directional coupler , the signal is substantially unattenuated if the frequency of the signal is in a passband of the absorptive low pass filter and attenuated by a coupling parameter of the directional coupler if the frequency of the signal is in a stopband of the absorptive low pass filter and within a bandwidth of the directional coupler . a directional coupler ; and an absorptive low pass filter , wherein the directional coupler comprises a first transmission line extending from a first port of the directional coupler to a second port of the directional coupler and comprises a second transmission line extending from a third port of the directional coupler to a fourth port of the directional coupler , wherein the first transmission line and the second transmission line are configured such that a portion of a signal travelling from the first port of the directional coupler onto the first transmission line is coupled to the second transmission line and towards the third port of the directional coupler , and wherein the second port of the directional coupler is connected to the fourth port of the directional coupler via the absorptive low pass filter , such that when the signal is input into the first port of the directional coupler and output through the third port of the directional coupler , the signal is substantially unattenuated if the frequency of the signal is in a passband of the absorptive low pass filter and attenuated by a coupling parameter of the directional coupler if the frequency of the signal is in a stopband of the absorptive low pass filter and within a bandwidth of the directional coupler .
A method of assembling a cell growth module comprising a synthetic polymeric membrane and a synthetic polymeric housing, the method comprising: treating the membrane with both gamma irradiation and gas plasma to modify the surface of the membrane to cause cells to adhere to the membrane; and inserting the membrane into the housing, after the treating step to form the cell growth module. treating the membrane with both gamma irradiation and gas plasma to modify the surface of the membrane to cause cells to adhere to the membrane; and inserting the membrane into the housing, after the treating step to form the cell growth module.
A corner deflector for a drive rod fitting of a window, a French door or the like with a housing having two housing legs , with a flexible deflection member mounted in the housing , with drive rod sections fastened to the ends of the deflection member and with a latch tongue fastened to the housing , said latch tongue holding a latch hook , for fastening the housing in a fitting groove of the window, the French window or the like, wherein a blocking element is arranged on the side of the latch tongue facing away from the latch hook , which blocking element can be moved from a release position, in which the latch tongue is freely movable, into a blocking position, in which the movement of the latch hook is blocked, wherein the respective housing leg of the housing having the latch hook has a guide for the blocking element , that the guide is arranged parallel to the drive rod section and that the blocking element is displaceably guided in the guide , characterized in that at least one of the drive rod sections is designed as blocking element .