mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a fiber-reinforced coated mat-faced panel , comprising: forming a first fibrous mat comprising mat fibers in a wet-laid process; applying a fiber-reinforced coating to a first surface of the first fibrous mat to form a coated first fibrous mat prior to drying the first fibrous mat ; drying the coated first fibrous mat to cure the fiber-reinforced coating ; and combining the first fibrous mat with a panel material comprising gypsum to form a mat-faced panel, wherein the fiber-reinforced coating comprises: coating fibers comprising glass fibers, fire resistant or flame retardant polymer fibers, single-crystal calcium sulfate anhydrite whiskers, single-crystal magnesium aluminate whiskers, single-crystal magnesium silicate whiskers, single-crystal calcium silicate whiskers, or a combination thereof, and a coating base. forming a first fibrous mat comprising mat fibers in a wet-laid process; applying a fiber-reinforced coating to a first surface of the first fibrous mat to form a coated first fibrous mat prior to drying the first fibrous mat ; drying the coated first fibrous mat to cure the fiber-reinforced coating ; and combining the first fibrous mat with a panel material comprising gypsum to form a mat-faced panel, coating fibers comprising glass fibers, fire resistant or flame retardant polymer fibers, single-crystal calcium sulfate anhydrite whiskers, single-crystal magnesium aluminate whiskers, single-crystal magnesium silicate whiskers, single-crystal calcium silicate whiskers, or a combination thereof, and a coating base.
An apparatus , comprising: a first protection circuit module comprising one or more inputs, a control interface, and an output coupled to a first node , wherein the first protection circuit module is configured when a value of a signal at the one or more inputs of the first protection circuit module (101 A) meets or exceeds one or more thresholds to activate the output coupled to the first node , activate a control signal at the control interface, and transition to an internal protection state ; and a second protection circuit module comprising one or more inputs, a control interface, and an output coupled to a second node , wherein the second protection circuit module is configured when a value of a signal at the one or more inputs of the second protection circuit module meets or exceeds one or more thresholds to activate the output coupled to the second node , activate the control signal at the control interface, and transition to the internal protection state , wherein the control interface of the first protection circuit module is coupled to the control interface of the second protection circuit module , wherein the first protection circuit module is configured when the second protection circuit module activates the control signal to activate the output coupled to the first node and transition to an external protection state , and wherein the second protection circuit module is configured when the first protection circuit module activates the control signal to activate the output coupled to the second node and transition to the external protection state . a first protection circuit module comprising one or more inputs, a control interface, and an output coupled to a first node , wherein the first protection circuit module is configured when a value of a signal at the one or more inputs of the first protection circuit module (101 A) meets or exceeds one or more thresholds to activate the output coupled to the first node , activate a control signal at the control interface, and transition to an internal protection state ; and a second protection circuit module comprising one or more inputs, a control interface, and an output coupled to a second node , wherein the second protection circuit module is configured when a value of a signal at the one or more inputs of the second protection circuit module meets or exceeds one or more thresholds to activate the output coupled to the second node , activate the control signal at the control interface, and transition to the internal protection state , wherein the control interface of the first protection circuit module is coupled to the control interface of the second protection circuit module , wherein the first protection circuit module is configured when the second protection circuit module activates the control signal to activate the output coupled to the first node and transition to an external protection state , and wherein the second protection circuit module is configured when the first protection circuit module activates the control signal to activate the output coupled to the second node and transition to the external protection state .
Attachment for fastening a conveyor element to a chain of a chain conveyor formed of chain links , comprising two attachment elements which are detachably connected to one another via a connecting element , wherein each of the attachment elements has a fastening section which can be fastened to the conveyor member , and an attachment horn which is attachable to a chain link , the attachment horn has a curved contact surface which is configured to abut to a curved section of the chain link , wherein each attachment element has a connecting section shaped complementary to each other, wherein in the connected state of the attachment elements the connecting sections shaped complementary to each other form at least one receiving opening and/or a receiving opening section for inserting the connecting element , characterised in that a concave recess is introduced into the contact surface , which is configured in such a way that the curved section lies in the recess in a positive locking manner and free of play, and, in that the fastening section has a recess for the positive locking contact of a straight section of the chain link .
A capsule , comprising a hollow body made from a first plant material and designed to receive an infusible product made from a second plant material, the body having an opening sealed with a lid to contain the infusible product , characterized in that the capsule has at least one breakable protuberance protruding from the body opposite to the opening and punchable by a machine intended to infuse the infusible product .
An access method performed by a user equipement, UE , wherein a mobile application, MAPP, is installed on the UE, the method comprises: accessing (S601) a local area network, wherein an Internet of Things, IoT, gateway is in the local area network; sending (S602) a multicast probe message in the local area network, wherein the multicast probe message is used to search for the IoT gateway; receiving (S605) a multicast response message that is sent by the IoT gateway and that comprises an address of the IoT gateway; obtaining (S606) an address of an IoT cloud platform and an access identifier allocated by the IoT cloud platform to the MAPP, after the UE has been logged to the IoT cloud platform using the MAPP; and sending (S607) the address of the IoT cloud platform and the access identifier to the IoT gateway based on the address of the IoT gateway, so that the IoT gateway sends, to the IoT cloud platform based on the address of the IoT cloud platform, a registration message carrying the access identifier, wherein the registration message is used by the IoT cloud platform to bind the IoT gateway to the MAPP and, in response to this, send to the IoT gateway, a registration response message used to indicate that the IoT gateway successfully accesses the IoT cloud platform. accessing (S601) a local area network, wherein an Internet of Things, IoT, gateway is in the local area network; sending (S602) a multicast probe message in the local area network, wherein the multicast probe message is used to search for the IoT gateway; receiving (S605) a multicast response message that is sent by the IoT gateway and that comprises an address of the IoT gateway; obtaining (S606) an address of an IoT cloud platform and an access identifier allocated by the IoT cloud platform to the MAPP, after the UE has been logged to the IoT cloud platform using the MAPP; and sending (S607) the address of the IoT cloud platform and the access identifier to the IoT gateway based on the address of the IoT gateway, so that the IoT gateway sends, to the IoT cloud platform based on the address of the IoT cloud platform, a registration message carrying the access identifier, wherein the registration message is used by the IoT cloud platform to bind the IoT gateway to the MAPP and, in response to this, send to the IoT gateway, a registration response message used to indicate that the IoT gateway successfully accesses the IoT cloud platform.
Communication module for a household appliance , wherein the communication module comprises the following: - a sensor device which is designed to be attached in the region of an appliance housing of the household appliance ; - a wireless data interface ; - wherein the sensor device is designed to scan an emission signal, which passes through the appliance housing to the outside, of a component of the household appliance carrying out the operating process of the household appliance ; - a further sensor device for scanning a further emission signal of the household appliance ; - a processing device which is designed to determine an operating state of the household appliance on the basis of measured values of the two sensor devices , and to provide it by means of the data interface ; - wherein the communication module is designed to be selectively used on different types of household appliance , characterised in that - the communication module is designed to shift the further sensor device from a power-saving mode into an operating mode if the emission signal scanned by means of the sensor device indicates a change in the operating state of the household appliance . - a sensor device which is designed to be attached in the region of an appliance housing of the household appliance ; - a wireless data interface ; - wherein the sensor device is designed to scan an emission signal, which passes through the appliance housing to the outside, of a component of the household appliance carrying out the operating process of the household appliance ; - a further sensor device for scanning a further emission signal of the household appliance ; - a processing device which is designed to determine an operating state of the household appliance on the basis of measured values of the two sensor devices , and to provide it by means of the data interface ; - wherein the communication module is designed to be selectively used on different types of household appliance , - the communication module is designed to shift the further sensor device from a power-saving mode into an operating mode if the emission signal scanned by means of the sensor device indicates a change in the operating state of the household appliance .
A method for recognizing a cell, the cell being a leukocyte, the method comprising: - receiving an image of the cell, - performing edge detection on the image of the cell, - performing ridge detection on the image of the cell and quantifying an internal complexity of the cell by gauging the contrast of the ridges by the average of the Laplacian on the detected ridges, the method characterized by further comprising - selecting, based on a combination of the edge detection results and the ridge detection and internal complexity quantification results, a cell type for the imaged cell from one of a granulocyte, a monocyte or a lymphocyte. - receiving an image of the cell, - performing edge detection on the image of the cell, - performing ridge detection on the image of the cell and quantifying an internal complexity of the cell by gauging the contrast of the ridges by the average of the Laplacian on the detected ridges, the method characterized by further comprising - selecting, based on a combination of the edge detection results and the ridge detection and internal complexity quantification results, a cell type for the imaged cell from one of a granulocyte, a monocyte or a lymphocyte.
A sparse data signal receiver system comprising: a mixer configured to generate a serial stream of mixed signals (S mix ) from a serial stream of sparse data signals (S dat ) and a serial stream of synchronization signals (S sync ), to thereby add redundancy to said serial stream of sparse data signals (S dat ) and enable clock regeneration therefrom; a clock regeneration unit configured to operate on said serial stream of mixed signals (S mix ); a data speed convertor configured to convert said serial stream of mixed signals (S mix ) into a stream of parallel mixed signals (P mix ) having a data rate lower than a data rate of said serial signal stream; and a demixer configured to remove the redundancy introduced by said mixer into said sparse data signals (S dat ), characterized in that said serial stream of synchronization signals (S sync ) comprising a pseudo random binary sequence, PRBS, and said clock regeneration unit configured to determine a frequency of said serial stream of synchronization signals (S sync ) comprising said PRBS, said system further comprising a synchronization signal emulation unit configured to: generate a PRBS signal having the frequency determined by said clock regeneration unit and periodicity, monic polynomial and seed value, of said PRBS; and produce a corresponding stream of parallel synchronization signals (E sync ) emulating said serial stream of synchronization signals (S sync ) comprising the PRBS and synchronized therewith, and said demixer configured to generate a parallel stream of demixed signals (P dat ) from said stream of parallel synchronization signals (E sync ) having the determined frequency and the PRBS periodicity and said stream of parallel mixed signals (P mix ). said serial stream of synchronization signals (S sync ) comprising a pseudo random binary sequence, PRBS, and said clock regeneration unit configured to determine a frequency of said serial stream of synchronization signals (S sync ) comprising said PRBS, said system further comprising a synchronization signal emulation unit configured to: generate a PRBS signal having the frequency determined by said clock regeneration unit and periodicity, monic polynomial and seed value, of said PRBS; and produce a corresponding stream of parallel synchronization signals (E sync ) emulating said serial stream of synchronization signals (S sync ) comprising the PRBS and synchronized therewith, and said demixer configured to generate a parallel stream of demixed signals (P dat ) from said stream of parallel synchronization signals (E sync ) having the determined frequency and the PRBS periodicity and said stream of parallel mixed signals (P mix ).
An ionization pressure gauge comprising: a cathode configured to be heated to emit electrons with an electron emission current; characterised by a transistor circuit configured to pass the electron emission current with low input impedance and to control cathode bias voltage of the cathode. a cathode configured to be heated to emit electrons with an electron emission current; characterised by a transistor circuit configured to pass the electron emission current with low input impedance and to control cathode bias voltage of the cathode.
Protective tube produced using a heat-shrinkable yarn, which tube is produced using a circular knitting method, characterised in that , in the non-shrunk state of the knitted fabric, the ratio (P / M - Ø eff ) of the length of the stitch period (P) in the circumferential direction of the knitted fabric to the difference (M - Ø eff ) of the outer width (M) of the narrower stitches, measured in the circumferential direction, minus the effective thread diameter (Ø eff ), is between 1.49 and 1.78, preferably between 1.54 and 1, 70, and/or in that , in the non-shrunk state of the knitted fabric, the ratio (p / M - Ø eff ) of the length of the stitch period (p) in the longitudinal direction of the knitted fabric to the difference (M-Ø eff ) of the outer width (M) of the narrower stitches, measured in the circumferential direction, minus the effective thread diameter (Ø eff ), is between 0.65 and 0.76.
An apparatus for heat treatment of sheets (S) that are supported on a moving belt , wherein the sheets (S) are pressed against a support surface of the belt and the belt is supported on a heat conductive stationary support structure , characterized in that the heat conductive support structure is elastically biased against the belt with a biasing force (F1) and a compliance limiting mechanism is arranged to support the belt against a force (Fs) with which the sheets are pressed against the belt, characterized in that the support structure is divided into separate segments which are biased against the belt independently of one another.
A composite film comprising a metal oxide based composite layer , a silver based layer and a first metal based layer disposed between the metal oxide based composite layer and the first silver based layer , wherein the metal oxide based composite layer comprises a niobium oxide layer and a metal oxide layer , and wherein the composite film has a visual light transmittance of at least 65%.
A nanofibrillar cellulose hydrogel comprising azido-modified nanofibrillar cellulose having a substituent represented by the formula -O-(CH 2 ) n -S(O) m -L 1 -N 3 , wherein n is in the range of 1 to 10; m is 0 or 1; and L 1 is a linker; wherein the substituent is attached to a carbon of one or more glucosyl units of the azido-modified nanofibrillar cellulose, thus forming an ether bond to the carbon.
A consumable electrode-fed welding-type system , comprising: a welding-type power source configured to provide welding-type current to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch; an electrode preheating circuit configured to provide preheating current through a first portion of the welding-type electrode via a second contact tip of the welding torch; a switching circuit configured to control a current flow between the welding-type power source and the first contact tip ; and characterized by : a preheat control circuit configured to control the switching circuit to: selectively direct current from the welding-type power source to the second contact tip ; and selectively divert current from the electrode preheating circuit to the first contact tip . a welding-type power source configured to provide welding-type current to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch; an electrode preheating circuit configured to provide preheating current through a first portion of the welding-type electrode via a second contact tip of the welding torch; a switching circuit configured to control a current flow between the welding-type power source and the first contact tip ; and characterized by : a preheat control circuit configured to control the switching circuit to: selectively direct current from the welding-type power source to the second contact tip ; and selectively divert current from the electrode preheating circuit to the first contact tip . selectively direct current from the welding-type power source to the second contact tip ; and selectively divert current from the electrode preheating circuit to the first contact tip .
Device for positioning a first element with respect to a second element that comprises: - a horizontal panel of which the upper face of which is able to hold the first element and which has a housing able to hold the second element ; and - first abutment means against which the first element is able to come into abutment in a first adjusting direction and second abutment means against which the first element is able to come into abutment in a second adjusting direction perpendicular to the first adjusting direction, said first and second abutment means being mounted on the panel projecting from the upper face of the panel , that comprises means for adjusting the position of the first abutment means in the first adjusting direction and means for adjusting the position of the second abutment means in the second adjusting direction with respect to the position of the housing in the panel , werein the means for adjusting the position of the first or second abutment means comprise at least one series of orifices formed in the panel which are distributed on the panel along the associated adjusting direction, wherein said abutment means comprise at least one foot able to be held in an orifice of said series of orifices , which is defined according to the adjusting of the position of said abutment means with respect to the position of the housing , and wherein the orifices of each series of orifices are distributed in several alignments parallel to said adjusting direction, with the alignments being offset from one another parallel to said adjusting direction according to a predefined pitch, and wherein the orifices of each alignment are separated by a multiple of said pitch, characterized in that said pitch equals the number of alignments of each series of orifices . - a horizontal panel of which the upper face of which is able to hold the first element and which has a housing able to hold the second element ; and - first abutment means against which the first element is able to come into abutment in a first adjusting direction and second abutment means against which the first element is able to come into abutment in a second adjusting direction perpendicular to the first adjusting direction, said first and second abutment means being mounted on the panel projecting from the upper face of the panel ,
A method for detecting congestion in a packet-switched network comprising: estimating, by a receiver , a transmission clock rate, R e , of one or more packets of a media stream received by the receiver, each packet comprising a timestamp generated based on the transmission clock rate, R, wherein the transmission clock rate, R e , is estimated based on the timing of a plurality n of received packets and the timestamps associated with said n packets and estimating the transmission clock rate, R e , comprises estimating a clock rate ratio, C e , between the transmission clock rate and the clock rate at the receiver based on the following model of the reception time t k of a packet k: T k = Ce . t k + Oe where T k is the timestamp, and Oe is an estimate of an origin value of the timestamps, and the reception time t k is predicted using an adaptive filtering technique based on a recursive least squares, RLS, algorithm or on a Kalman filter algorithm; comparing the estimated transmission clock rate, R e , with a threshold, TH; and detecting congestion in the network based on said comparison. estimating, by a receiver , a transmission clock rate, R e , of one or more packets of a media stream received by the receiver, each packet comprising a timestamp generated based on the transmission clock rate, R, wherein the transmission clock rate, R e , is estimated based on the timing of a plurality n of received packets and the timestamps associated with said n packets and estimating the transmission clock rate, R e , comprises estimating a clock rate ratio, C e , between the transmission clock rate and the clock rate at the receiver based on the following model of the reception time t k of a packet k: T k = Ce . t k + Oe where T k is the timestamp, and Oe is an estimate of an origin value of the timestamps, and the reception time t k is predicted using an adaptive filtering technique based on a recursive least squares, RLS, algorithm or on a Kalman filter algorithm; comparing the estimated transmission clock rate, R e , with a threshold, TH; and detecting congestion in the network based on said comparison.