mhurhangee/patent-ind-claim-en huggingface dataset:
A method for therapy response assessment, the method comprising: obtaining a pre-therapy medical image of a patient, the pre-therapy medical image representing at least one lesion of the patient; obtaining a post-therapy medical image of the patient, the post-therapy medical image of the patient representing the same lesion of the patient; convolving, by a processor, the pre-therapy and post therapy medical images with a texture feature learned from training images, wherein convolving comprises convolving with the texture feature comprising an independent sub-space analysis feature; and classifying, by the processor, a therapy response of the lesion with a machine-learnt classifier with a result of the convolving as an input feature to the machine-learnt classifier, wherein that input feature is calculated from the results of the convolution, wherein the feature is a Haar wavelet feature. obtaining a pre-therapy medical image of a patient, the pre-therapy medical image representing at least one lesion of the patient; obtaining a post-therapy medical image of the patient, the post-therapy medical image of the patient representing the same lesion of the patient; convolving, by a processor, the pre-therapy and post therapy medical images with a texture feature learned from training images, wherein convolving comprises convolving with the texture feature comprising an independent sub-space analysis feature; and classifying, by the processor, a therapy response of the lesion with a machine-learnt classifier with a result of the convolving as an input feature to the machine-learnt classifier, wherein that input feature is calculated from the results of the convolution, wherein the feature is a Haar wavelet feature.
Method for treating the surface of parts , wherein thick parts are treated with a directional corona discharge, while running the parts relative to the corona station in a run direction (F1), wherein, prior to the corona treatment, the parts are prepared with a plasma; said method being characterised in that -- a facility comprising at least one electrode comprising tips aligned in an electrode path is used to generate the directional corona discharge, the tips projecting in a tip direction (F2) towards the running parts , the tip direction (F2) being substantially perpendicular to the run direction (F1), the electrode being placed between two equally-spaced auxiliary electrodes ; - the run direction (F1) is perpendicular to the electrode path; - the electrode is moved in a reciprocating motion perpendicular to the run direction (F1). - the run direction (F1) is perpendicular to the electrode path; - the electrode is moved in a reciprocating motion perpendicular to the run direction (F1).
A fastener for use in concrete comprising: a shank ; and a head ; wherein the shank has a tip distal most from the head, the shank including a first helical thread formation having a thread form thereon formed from two portions disposed upon opposite lateral sides of the thread form, the thread form having a root, the two portions including an alternating series of lobe members and base portions , the lobe members having a height as measured from the root and the base portions having a height as measured from the root, the height of the lobe members being greater than the height of the base portions, the height of the base portions being greater than zero, the shank including a single second helical thread formation disposed adjacent to and spaced from the first helical thread formation; wherein the first helical thread formation extends from about the tip and the thread form has an arrowhead like shape; and wherein the second helical thread formation has a height that is less than the height of the lobe members and the second helical thread formation is formed equidistant between the first helical thread formation as the first helical thread formation winds about the shank . a shank ; and a head ; wherein the shank has a tip distal most from the head, the shank including a first helical thread formation having a thread form thereon formed from two portions disposed upon opposite lateral sides of the thread form, the thread form having a root, the two portions including an alternating series of lobe members and base portions , the lobe members having a height as measured from the root and the base portions having a height as measured from the root, the height of the lobe members being greater than the height of the base portions, the height of the base portions being greater than zero, the shank including a single second helical thread formation disposed adjacent to and spaced from the first helical thread formation; wherein the first helical thread formation extends from about the tip and the thread form has an arrowhead like shape; and wherein the second helical thread formation has a height that is less than the height of the lobe members and the second helical thread formation is formed equidistant between the first helical thread formation as the first helical thread formation winds about the shank .
A computer-executable method for enhancing security in a secure communication channel, comprising: collecting, by a mobile device, contextual information associated with the mobile device or a user of the mobile device (step 506); determine whether a trigger condition is met based on the collected contextual information (step 508); in response to determining that the trigger condition is met, performing a first type of key-ratcheting operation on a current cryptographic key to update the cryptographic key (step 510); in response to determining that the trigger condition is not met, performing a second type of key-ratcheting operation on the current cryptographic key to update the cryptographic key (step 512); and encrypting a to-be-sent message using an encryption key associated with the updated cryptographic key (step 514). collecting, by a mobile device, contextual information associated with the mobile device or a user of the mobile device (step 506); determine whether a trigger condition is met based on the collected contextual information (step 508); in response to determining that the trigger condition is met, performing a first type of key-ratcheting operation on a current cryptographic key to update the cryptographic key (step 510); in response to determining that the trigger condition is not met, performing a second type of key-ratcheting operation on the current cryptographic key to update the cryptographic key (step 512); and encrypting a to-be-sent message using an encryption key associated with the updated cryptographic key (step 514).
Nickel-based superalloy powder comprising, by mass percent, 14.00 to 15.25% chromium, 14.25 to 15.75% cobalt, 3.9 to 4.5% molybdenum, 4.0 to 4.6% aluminum, 3.0 to 3.7% titanium, 0 to 0.10 copper, 0 to 0.50 iron, 0 to 200 ppm carbon, the remainder consisting of nickel and unavoidable impurities.
A method for manufacturing nanoholes , the method comprising: a preparing step of preparing a body having a through-hole which passes through two facing surfaces and has a nano-scale diameter, the body being an anodic aluminum oxide (AAO) membrane; and a particle injecting step of injecting particles into the through-hole through an inlet of the through-hole to form nanoholes with a smaller size than the through-hole , wherein the inlet and an outlet opposite to the inlet , are formed in an asymmetric structure, wherein in the through-hole , the diameter of the inlet is larger than that of the outlet , the diameter of the inlet is larger than the diameter of the particles , and the diameter of the outlet is smaller than the diameter of the particles , so that the particles injected in the particle injecting step do not leave the through-hole through the outlet , wherein in the particle injecting step, the nanoholes are formed by pores between the particles , characterized in that a surface of the particles is positively or negatively charged so that an electrically charged electric double layer is formed on the surface of the particle or a region adjacent to the surface. a preparing step of preparing a body having a through-hole which passes through two facing surfaces and has a nano-scale diameter, the body being an anodic aluminum oxide (AAO) membrane; and a particle injecting step of injecting particles into the through-hole through an inlet of the through-hole to form nanoholes with a smaller size than the through-hole , wherein the inlet and an outlet opposite to the inlet , are formed in an asymmetric structure, wherein in the through-hole , the diameter of the inlet is larger than that of the outlet , the diameter of the inlet is larger than the diameter of the particles , and the diameter of the outlet is smaller than the diameter of the particles , so that the particles injected in the particle injecting step do not leave the through-hole through the outlet , wherein in the particle injecting step, the nanoholes are formed by pores between the particles , characterized in that a surface of the particles is positively or negatively charged so that an electrically charged electric double layer is formed on the surface of the particle or a region adjacent to the surface.
An all-plastic liquid dispenser, comprising a large ring , a connecting cover , and a hollow pump frame , wherein the pump frame is movably clamped to the interior of the large ring , the top of the pump frame extends to the outer side of the top of the large ring , a bottom protruding portion of the connecting cover extends into a top groove of the pump frame so as to be movably clamped thereto, a first air outlet is provided on both sides of the bottom of the connecting cover connected to the pump frame , a second air outlet in communication with the first air outlet is provided to penetrate through the pump frame , the bottom of the second air outlet extends into an inner cavity of the large ring , a first liquid outlet is provided at both sides of the axial center of the pump frame to penetrate through the pump frame, the first liquid outlet is in communication with a hollow portion of the pump frame , and a second liquid outlet in one-to-one correspondence to the first liquid outlet is provided to penetrate through the connecting cover ; and a press cover is disposed on the top of an inner cavity of the connecting cover , the press cover is fixedly disposed on a top protruding portion of the connecting cover , a press cover channel is disposed at the axial center of the press cover to penetrate through the press cover, and the press cover channel can be in communication with the first liquid outlet and the second liquid outlet.
Body for a passenger car, comprising two main longitudinal members which extend into a rear vehicle region and are connected to one another via at least one bumper cross-member , and comprising a support arrangement which extends between the two main longitudinal members and is supported, in the event of collision-related application of force, to form an additional load path (L) on a center tunnel provided in a protective zone (S) of the passenger car body, an installation space region being provided above and/or below the support arrangement for accommodating at least one component or assembly in need of protection, and the support arrangement comprising a strut which extends in the region of the vehicle center between the main longitudinal members and is designed as a protective device which passes or forwards the impact forces forward to the center tunnel in the event of collision-related force application, characterized in that the strut has a first longitudinal portion which can be specifically deformed in an energy-absorbing manner in the event of an impact with a collision partner, and a second longitudinal portion which behaves as a rigid beam in the event of impact with a collision partner and passes or forwards the impact forces.
Method for operating an internal combustion engine, wherein a turbine of an exhaust gas turbocharger , which is arranged in an exhaust system of the internal combustion engine, is driven by exhaust gas from the internal combustion engine and a compressor of the exhaust gas turbocharger , which is driven by the turbine and arranged in a combustion air system of the internal combustion engine, compresses combustion air , wherein, in a high-pressure exhaust gas recirculation loop (HP-EGR loop) , exhaust gas is diverted upstream of the turbine and mixed with the combustion air downstream of the compressor , wherein, in a low-pressure exhaust gas recirculation loop (LP-EGR loop), exhaust gas is diverted downstream of the turbine and mixed with the combustion air upstream of the compressor , wherein, in the LP-EGR loop , the exhaust gas is cleaned by a low-pressure exhaust gas recirculation filter (LP-EGR filter) , wherein a predetermined value for a total exhaust gas recirculation rate (total EGR rate) is determined depending on an operating state of the internal combustion engine, wherein at least one operating parameter of the internal combustion engine is determined, characterized in that as an operating parameter of the internal combustion engine in the exhaust system , a value for a measure of a pressure difference between a first predetermined point upstream of the low-pressure exhaust gas recirculation filter (LP-EGR filter) and a second predetermined point downstream of the low-pressure exhaust gas recirculation filter (LP-EGR filter) is determined, wherein, depending on the value of the measure of the pressure difference , a proportion of a low-pressure exhaust gas recirculation rate (LP-EGR rate) to the total exhaust gas recirculation rate (total EGR rate) is reduced or increased and a proportion of a high-pressure exhaust gas recirculation rate (HP-EGR rate) to the total exhaust gas recirculation rate (total EGR rate) is increased or reduced accordingly, so that the total exhaust gas recirculation rate (total EGR rate) reaches the predetermined value.
A method for provisioning wideband service by a Cable Modem Termination System, CMTS, device forming part of a system comprising a Cable Modem, CM, and a provisioning server , the method comprising: receiving, by the CMTS device from the CM , a first data over cable service interface specification, DOCSIS, configuration file for narrowband registration of the CM with the CMTS device ; receiving by the CMTS device from the CM , a second DOCSIS configuration file for wideband registration of the CM with the CMTS device , the second DOCSIS configuration file comprising at least one type-length-value, TLV, that provides information that enables wideband capability, wherein each TLV consists of three fields indicating a type, a length and a value of an element, and was received by the CM from the provisioning server by an initial trivial file transfer protocol, TFTP, exchange following a dynamic host configuration protocol, DHCP, exchange between the CM and the provisioning server during which the CM identified itself as being wideband capable using a DHCP relay agent information option; and registering the CM at the CMTS device according to the first DOCSIS configuration file for narrowband service and according to the second DOCSIS configuration file for wideband service. receiving, by the CMTS device from the CM , a first data over cable service interface specification, DOCSIS, configuration file for narrowband registration of the CM with the CMTS device ; receiving by the CMTS device from the CM , a second DOCSIS configuration file for wideband registration of the CM with the CMTS device , the second DOCSIS configuration file comprising at least one type-length-value, TLV, that provides information that enables wideband capability, wherein each TLV consists of three fields indicating a type, a length and a value of an element, and was received by the CM from the provisioning server by an initial trivial file transfer protocol, TFTP, exchange following a dynamic host configuration protocol, DHCP, exchange between the CM and the provisioning server during which the CM identified itself as being wideband capable using a DHCP relay agent information option; and registering the CM at the CMTS device according to the first DOCSIS configuration file for narrowband service and according to the second DOCSIS configuration file for wideband service.
A switched mode power supply, SMPS, comprising: a transformer (T1) with a first winding and a second winding , the first winding being connected to an input node, the second winding being connected to an output node; an input switch (S1) connected to the first winding of the transformer; an output switch (S2) connected to the second winding of the transformer; and a control circuitry to drive the input and output switches, the control circuitry including: a first driver (DR1) to drive the input switch in response to a driving signal; a pulse circuit to generate a pulse signal in response to the driving signal; a timer circuit (TMR1) to generate a delayed signal in response to the pulse signal; a second driver (DRV2) to drive to the output switch in response to the delayed signal; and a comparator (COMP1) that compares a signal at a node between the second winding of the transformer and the output switch with a reference voltage signal to output a comparison signal to the timer circuit, the comparison signal being used by the timer circuit to adjust a delay of the timer circuit; wherein the timer circuit is configured to detect the width of the comparison signal to determine the delay of the timer circuit, and wherein the timer circuit includes a gated counter (CNT1) to generate a value indicative of the width of the comparison circuit and a second comparator (COMP2) that generates a reduce signal in response to the value from the gated counter exceeding a target value to reduce the delay of the timer circuit. a transformer (T1) with a first winding and a second winding , the first winding being connected to an input node, the second winding being connected to an output node; an input switch (S1) connected to the first winding of the transformer; an output switch (S2) connected to the second winding of the transformer; and a control circuitry to drive the input and output switches, the control circuitry including: a first driver (DR1) to drive the input switch in response to a driving signal; a pulse circuit to generate a pulse signal in response to the driving signal; a timer circuit (TMR1) to generate a delayed signal in response to the pulse signal; a second driver (DRV2) to drive to the output switch in response to the delayed signal; and a first driver (DR1) to drive the input switch in response to a driving signal; a pulse circuit to generate a pulse signal in response to the driving signal; a timer circuit (TMR1) to generate a delayed signal in response to the pulse signal; a second driver (DRV2) to drive to the output switch in response to the delayed signal; and a comparator (COMP1) that compares a signal at a node between the second winding of the transformer and the output switch with a reference voltage signal to output a comparison signal to the timer circuit, the comparison signal being used by the timer circuit to adjust a delay of the timer circuit;
A composition for use in a method of treating or preventing an infectious disease by inducing proliferation or accumulation of transcription factor Foxp3-positive regulatory T cells, the composition comprising, as an active ingredient, bacteria belonging to the genus Clostridium of clusters XIVa and/or IV, wherein the bacteria induce said proliferation or accumulation of transcription factor Foxp3-positive regulatory T cells.
A room service table , including; a table top having two opposing edges ; at least two opposing legs adjacent a respective opposing edge, for supporting the table top, the legs having wheels for rolling the table along a surface; a drawer located underneath of the table top for receiving food for room service delivery, the drawer being an insulated drawer to act as a food warmer and having a heating element to ensure heat within the drawer is maintained; wherein the table top is moveably connected to the opposing legs, and whereby the table top and drawer can be tilted upwards with respect to both of the opposing legs to allow nesting together of two or more like room service tables, characterized in that there is further provided a rechargeable battery pack held in a recess on an inside surface of one of the legs of the room service table, wherein the rechargeable battery pack is configured to power the heating element. a table top having two opposing edges ; at least two opposing legs adjacent a respective opposing edge, for supporting the table top, the legs having wheels for rolling the table along a surface; a drawer located underneath of the table top for receiving food for room service delivery, the drawer being an insulated drawer to act as a food warmer and having a heating element to ensure heat within the drawer is maintained; wherein the table top is moveably connected to the opposing legs, and whereby the table top and drawer can be tilted upwards with respect to both of the opposing legs to allow nesting together of two or more like room service tables, characterized in that there is further provided a rechargeable battery pack held in a recess on an inside surface of one of the legs of the room service table, wherein the rechargeable battery pack is configured to power the heating element.
A coupling system between an agricultural or forestry machine or the like, and tool-holder comprising a three-point hitch characterized in that the connection system comprises two additional arms , which are adapted to be connected at one end with the agricultural machine and are connected at the other end with a rolling body , the rolling body being adapted to be rotatably connected with the tool-holder .
An element submount , comprising: a substrate including a first surface and a second surface opposite to the first surface ; a first conductive heat-dissipating layer formed on the first surface ; a second conductive heat-dissipating layer formed on the first surface and separated from the first conductive heat-dissipating layer ; a first heat-dissipating layer formed on the second surface ; and an element bonding layer formed on the second conductive heat-dissipating layer , characterized in that an edge of at least one side of the element bonding layer extends beyond an edge of the second conductive heat-dissipating layer and partially covers a side of the second conductive heat-dissipating layer . a substrate including a first surface and a second surface opposite to the first surface ; a first conductive heat-dissipating layer formed on the first surface ; a second conductive heat-dissipating layer formed on the first surface and separated from the first conductive heat-dissipating layer ; a first heat-dissipating layer formed on the second surface ; and an element bonding layer formed on the second conductive heat-dissipating layer , characterized in that an edge of at least one side of the element bonding layer extends beyond an edge of the second conductive heat-dissipating layer and partially covers a side of the second conductive heat-dissipating layer .