mhurhangee/patent-ind-claim-en huggingface dataset:
Device for forming a liquid treatment apparatus, including: a main part (3,4;3',4'), the main part (3,4;3'4') including a housing accommodating a receiving part , the receiving part (6;6') including a cavity for receiving a connecting head (7;7') of a replaceable liquid treatment cartridge having at least one port (9-12;9'-12') in liquid communication with an interior of the liquid treatment cartridge such that the at least one port(s) (9-12;9'-12') of the connecting head is in sealed liquid communication with corresponding ports (37-40;37'-40') of the receiving part (6;6'), wherein the receiving part (6;6') is journalled for movement between a first and a second position with respect to the main part (3,4;3',4') whilst the connecting head (7;7') is inserted in the cavity, wherein the connecting head (7;7') is insertable into and retractable from the cavity in the first position, wherein the liquid treatment cartridge is lockable to the device by at least moving the receiving part (6;6') with the inserted connecting head (7;7') into the second position, and wherein the movement includes a component corresponding to an intrinsic rotation in a plane parallel to a direction of insertion, characterised in that the movement further includes at least a component corresponding to a displacement of the entire receiving part (6;6') and thus of the axis of intrinsic rotation, relative to the main part (3,4;3',4'), wherein the displacement is in a direction parallel to the plane of rotation, so that the rotation is not about an axis of rotation fixed in position relative to the main part (3,4;3',4'). a main part (3,4;3',4'), the main part (3,4;3'4') including a housing accommodating a receiving part , the receiving part (6;6') including a cavity for receiving a connecting head (7;7') of a replaceable liquid treatment cartridge having at least one port (9-12;9'-12') in liquid communication with an interior of the liquid treatment cartridge such that the at least one port(s) (9-12;9'-12') of the connecting head is in sealed liquid communication with corresponding ports (37-40;37'-40') of the receiving part (6;6'), wherein the receiving part (6;6') is journalled for movement between a first and a second position with respect to the main part (3,4;3',4') whilst the connecting head (7;7') is inserted in the cavity, wherein the connecting head (7;7') is insertable into and retractable from the cavity in the first position, wherein the liquid treatment cartridge is lockable to the device by at least moving the receiving part (6;6') with the inserted connecting head (7;7') into the second position, and wherein the movement includes a component corresponding to an intrinsic rotation in a plane parallel to a direction of insertion, characterised in that the movement further includes at least a component corresponding to a displacement of the entire receiving part (6;6') and thus of the axis of intrinsic rotation, relative to the main part (3,4;3',4'), wherein the displacement is in a direction parallel to the plane of rotation, so that the rotation is not about an axis of rotation fixed in position relative to the main part (3,4;3',4').
A tubular welding wire , comprising: - a metallic sheath and a granular core , wherein the metallic sheath is manufactured from a low carbon steel or a low-alloy steel, wherein the tubular welding wire is configured to form a weld deposit on a structural steel workpiece , wherein the granular core comprises less than or equal to 35% of the tubular welding wire by weight; wherein the granular core comprises: - 4-18 % alloying components by weight, consisting of 2-12 % nickel, 0-1,5 % copper, 0-1 % molybdenum, 0-1 % carbon, and less than 0,1 % manganese by weight, - 10-15 % arc stabilizing components by weight, consisting of 0-7,5 % iron oxides, 0-2 % potassium fluorosilicate, 0-12 % sodium titanate frit, and 0-6 % lithium oxide agglomerate by weight, - 25-50 % slag forming components by weight consisting of agglomerated TiO 2 , wherein the TiO 2 used is a pigment-grade TiO 2 , - 5-15 % deoxidizers by weight, consisting of 0-3 % aluminum, 0-3% magnesium, 0-4 % zirconium, and 0-6 % silicon by weight, and - 5-55 % filler metal by weight consisting of iron, wherein the welding wire includes less than 0,5 % manganese by weight. - a metallic sheath and a granular core , wherein the metallic sheath is manufactured from a low carbon steel or a low-alloy steel, wherein the tubular welding wire is configured to form a weld deposit on a structural steel workpiece , - 4-18 % alloying components by weight, consisting of 2-12 % nickel, 0-1,5 % copper, 0-1 % molybdenum, 0-1 % carbon, and less than 0,1 % manganese by weight, - 10-15 % arc stabilizing components by weight, consisting of 0-7,5 % iron oxides, 0-2 % potassium fluorosilicate, 0-12 % sodium titanate frit, and 0-6 % lithium oxide agglomerate by weight, - 25-50 % slag forming components by weight consisting of agglomerated TiO 2 , wherein the TiO 2 used is a pigment-grade TiO 2 , - 5-15 % deoxidizers by weight, consisting of 0-3 % aluminum, 0-3% magnesium, 0-4 % zirconium, and 0-6 % silicon by weight, and - 5-55 % filler metal by weight consisting of iron,
A lead-acid battery comprising: a plate group formed by stacking a positive electrode plate and a negative electrode plate with a separator sandwiched therebetween; an electrolyte solution; and a container accommodating the plate group, wherein a porous layer is formed at least one of between the separator and the positive electrode plate and between the separator and the negative electrode plate, characterized in that : a length A between outer ends of lugs on both edges just below at least one of a positive electrode strap or a negative electrode strap is smaller than a length B between outer ends in a stacking direction of upper frame beam portions of the plates positioned on both ends among the plates connected to at least one of the straps, and wherein the length A and the length B are sizes in a state where the plate group is accommodated in the container, and is after being converted, and is in a fully charged state. a length A between outer ends of lugs on both edges just below at least one of a positive electrode strap or a negative electrode strap is smaller than a length B between outer ends in a stacking direction of upper frame beam portions of the plates positioned on both ends among the plates connected to at least one of the straps, and wherein the length A and the length B are sizes in a state where the plate group is accommodated in the container, and is after being converted, and is in a fully charged state.
A method of capturing a signal of interest periodically transmitted by a wireless wide area network, WWAN, at a user equipment, UE, comprising both a wireless local area network, WLAN, receive chain and a WWAN receive chain, the method comprising: obtaining access to the WLAN receive chain of the UE for a period of time corresponding to a WWAN measurement gap; capturing the signal of interest transmitted by the WWAN, the capturing occurring during the measurement gap and being done using the WLAN receive chain; and periodically repeating the obtaining and the capturing. obtaining access to the WLAN receive chain of the UE for a period of time corresponding to a WWAN measurement gap; capturing the signal of interest transmitted by the WWAN, the capturing occurring during the measurement gap and being done using the WLAN receive chain; and periodically repeating the obtaining and the capturing.
- A method for treating pea soluble fractions, comprising: a) a step of microfiltration of said soluble fractions resulting in a microfiltration permeate, b) followed by a step of ultrafiltration of the microfiltration permeate, resulting in an ultrafiltration permeate and an ultrafiltration retentate, c) followed by an optional step of reverse osmosis of said ultrafiltration permeate, resulting in a permeate and a retentate from the reverse osmosis, characterized in that the microfiltration step a) is a tangential membrane microfiltration, said method comprising before the step a) a step of preparation of soluble fractions comprising (i) the preparation of a starch milk, by mixing pea flour and water in a kneading machine, (ii) the preparation of a protein-rich product by extraction of the starch and the fibers from said starch milk from step i), (iii) a flocculation operation by thermocoagulation on said protein-rich product from step ii); (iv) a separation operation of the product obtained from step iii) to obtain a floc and a supernatant called soluble fractions. a) a step of microfiltration of said soluble fractions resulting in a microfiltration permeate, b) followed by a step of ultrafiltration of the microfiltration permeate, resulting in an ultrafiltration permeate and an ultrafiltration retentate, c) followed by an optional step of reverse osmosis of said ultrafiltration permeate, resulting in a permeate and a retentate from the reverse osmosis, characterized in that the microfiltration step a) is a tangential membrane microfiltration, said method comprising before the step a) a step of preparation of soluble fractions comprising (i) the preparation of a starch milk, by mixing pea flour and water in a kneading machine, (ii) the preparation of a protein-rich product by extraction of the starch and the fibers from said starch milk from step i), (iii) a flocculation operation by thermocoagulation on said protein-rich product from step ii); (iv) a separation operation of the product obtained from step iii) to obtain a floc and a supernatant called soluble fractions. (i) the preparation of a starch milk, by mixing pea flour and water in a kneading machine, (ii) the preparation of a protein-rich product by extraction of the starch and the fibers from said starch milk from step i), (iii) a flocculation operation by thermocoagulation on said protein-rich product from step ii); (iv) a separation operation of the product obtained from step iii) to obtain a floc and a supernatant called soluble fractions.
A receiving network node , comprising: a first antenna array ; one or more radio frequency components ; one or more configurable loads ; a switch ; and a first control circuit , wherein the first antenna array comprises one or more antennas arranged to be selectably coupled, via the switch , to the one or more radio frequency components or the one or more configurable loads , and wherein the first control circuit is configured to: obtain instruction data for configuring the first antenna array from a transmit-receive mode to a scattering mode; based on the instruction data, configure the one or more configurable loads to scatter, by the configured first antenna array , a first beam of a radio frequency signal sent by a transmitting network node located in a first cell to a first user device located in a second cell ; control the switch to change a coupling of the one or more antennas from the one or more radio frequency components to the configured one or more configurable loads ; and set the one or more radio frequency components to an idle mode. a first antenna array ; one or more radio frequency components ; one or more configurable loads ; a switch ; and a first control circuit , wherein the first antenna array comprises one or more antennas arranged to be selectably coupled, via the switch , to the one or more radio frequency components or the one or more configurable loads , and wherein the first control circuit is configured to: obtain instruction data for configuring the first antenna array from a transmit-receive mode to a scattering mode; based on the instruction data, configure the one or more configurable loads to scatter, by the configured first antenna array , a first beam of a radio frequency signal sent by a transmitting network node located in a first cell to a first user device located in a second cell ; control the switch to change a coupling of the one or more antennas from the one or more radio frequency components to the configured one or more configurable loads ; and set the one or more radio frequency components to an idle mode. obtain instruction data for configuring the first antenna array from a transmit-receive mode to a scattering mode; based on the instruction data, configure the one or more configurable loads to scatter, by the configured first antenna array , a first beam of a radio frequency signal sent by a transmitting network node located in a first cell to a first user device located in a second cell ; control the switch to change a coupling of the one or more antennas from the one or more radio frequency components to the configured one or more configurable loads ; and set the one or more radio frequency components to an idle mode.
An adhesion promotion device comprising: a main body portion configured to be disposed between biological organs, wherein the main body portion has a first region and a second region formed along an outer edge of the first region , the second region includes an adhesion promotion portion that promotes adhesion of a biological tissue, and the first region includes a holding portion having a holding force with respect to the biological organs which is stronger than that of the adhesion promotion portion , characterized in that said main body portion is configured to be disposed between biological organs which are anastomosed , said holding portion is integrally formed at a portion of an outer surface of the main body portion, said adhesion promotion portion has a plurality of through-holes ; and a ratio value of hole diameter D of the through-hole 25 with respect to a pitch P of the through-holes 25 is 0.25 or greater and smaller than 40. a main body portion configured to be disposed between biological organs, wherein the main body portion has a first region and a second region formed along an outer edge of the first region , the second region includes an adhesion promotion portion that promotes adhesion of a biological tissue, and the first region includes a holding portion having a holding force with respect to the biological organs which is stronger than that of the adhesion promotion portion , characterized in that said main body portion is configured to be disposed between biological organs which are anastomosed , said holding portion is integrally formed at a portion of an outer surface of the main body portion, said adhesion promotion portion has a plurality of through-holes ; and a ratio value of hole diameter D of the through-hole 25 with respect to a pitch P of the through-holes 25 is 0.25 or greater and smaller than 40.
An interference rejection combining, IRC, method supporting transmit diversity, comprising: generating an N ∗ N interference and noise covariance matrix corresponding to one subcarrier from signals, in a transmit diversity mode, received at cell reference signal, CRS, resource positions via N receiving antennas, where N is greater than or equal to 3; performing Cholescy decomposition and upper triangular matrix inversion on the N ∗ N interference and noise covariance matrix to obtain an N ∗ N block matrix; expanding the N ∗ N block matrix to a 2N ∗ 2N noise whitening matrix; and whitening the received signals and channel estimation values according to the 2N ∗ 2N noise whitening matrix, and using the whitened received signals and channel estimation values to obtain a minimum mean square error-IRC, MMSE-IRC, processing result; characterized in that said expanding the N ∗ N block matrix to the 2N ∗ 2N noise whitening matrix comprises: forming the 2N ∗ 2N noise whitening matrix by using the N ∗ N block matrix and conjugates of the N ∗ N block matrix, wherein main diagonal elements of the formed 2N ∗ 2N noise whitening matrix are the N ∗ N block matrix and the conjugates of the N ∗ N block matrix, and off-diagonal elements of the formed 2N ∗ 2N noise whitening matrix are zero. generating an N ∗ N interference and noise covariance matrix corresponding to one subcarrier from signals, in a transmit diversity mode, received at cell reference signal, CRS, resource positions via N receiving antennas, where N is greater than or equal to 3; performing Cholescy decomposition and upper triangular matrix inversion on the N ∗ N interference and noise covariance matrix to obtain an N ∗ N block matrix; expanding the N ∗ N block matrix to a 2N ∗ 2N noise whitening matrix; and whitening the received signals and channel estimation values according to the 2N ∗ 2N noise whitening matrix, and using the whitened received signals and channel estimation values to obtain a minimum mean square error-IRC, MMSE-IRC, processing result; characterized in that said expanding the N ∗ N block matrix to the 2N ∗ 2N noise whitening matrix comprises: forming the 2N ∗ 2N noise whitening matrix by using the N ∗ N block matrix and conjugates of the N ∗ N block matrix, wherein main diagonal elements of the formed 2N ∗ 2N noise whitening matrix are the N ∗ N block matrix and the conjugates of the N ∗ N block matrix, and off-diagonal elements of the formed 2N ∗ 2N noise whitening matrix are zero.
A system for detecting gluten in a food sample, comprising a single-use cartridge, comprising a sensor comprising a graphene layer disposed on an underlying substrate, a plurality of antibodies coupled to said graphene layer, said antibodies being configured for selective binding to a gluten protein, a plurality of metallic leads coupled to said anti-body functionalized graphene layer for detecting a change in electrical resistance thereof in response to interaction with said gluten protein, said cartridge further comprising a microfluidic sample delivery component comprising an inlet port for receiving the sample and one or more microfluidic channels for delivering at least a portion of the sample to said sensor, and said system further comprising an analyzer separate from said cartridge and configured for electrical coupling to said sensor, wherein said analyzer comprises: a data acquisition unit having a current source for applying a known current to said anti-body functionalized graphene layer, and a voltage meter for detecting a change in a voltage across said anti-body functionalized graphene layer, if any, in response to exposure of said anti-body functionalized graphene layer to a sample suspected of containing gluten, and an analysis module in communication with said data acquisition unit to compute a change in electrical resistance of said anti-body functionalized graphene layer based on said known current value and said detected change in voltage and determine whether gluten is present in the sample based on said change in the electrical resistance. a sensor comprising a graphene layer disposed on an underlying substrate, a plurality of antibodies coupled to said graphene layer, said antibodies being configured for selective binding to a gluten protein, a plurality of metallic leads coupled to said anti-body functionalized graphene layer for detecting a change in electrical resistance thereof in response to interaction with said gluten protein, said cartridge further comprising a microfluidic sample delivery component comprising an inlet port for receiving the sample and one or more microfluidic channels for delivering at least a portion of the sample to said sensor, and a data acquisition unit having a current source for applying a known current to said anti-body functionalized graphene layer, and a voltage meter for detecting a change in a voltage across said anti-body functionalized graphene layer, if any, in response to exposure of said anti-body functionalized graphene layer to a sample suspected of containing gluten, and an analysis module in communication with said data acquisition unit to compute a change in electrical resistance of said anti-body functionalized graphene layer based on said known current value and said detected change in voltage and determine whether gluten is present in the sample based on said change in the electrical resistance.
Method for processing image data provided by an image sensor, the image data comprising an array of pixel, characterized by the steps of: a) Determining the respective local brightness difference between a selected pixel and a set of pixels located adjacent to the selected pixel and assigned to the same colour as the respective pixel; and b) Identifying the selected pixel as a defect pixel when the local brightness difference for the selected pixel exceeds an upper threshold value or is less than an lower threshold value, and when the local brightness difference for the selected pixel exceeds a weighted maximum local brightness difference determined for the set of pixels located adjacent to and the same colour as the selected pixel or is less than a weighted minimum local brightness difference determined for the set of pixels located adjacent to and the same colour as the selected pixel. a) Determining the respective local brightness difference between a selected pixel and a set of pixels located adjacent to the selected pixel and assigned to the same colour as the respective pixel; and b) Identifying the selected pixel as a defect pixel when the local brightness difference for the selected pixel exceeds an upper threshold value or is less than an lower threshold value, and when the local brightness difference for the selected pixel exceeds a weighted maximum local brightness difference determined for the set of pixels located adjacent to and the same colour as the selected pixel or is less than a weighted minimum local brightness difference determined for the set of pixels located adjacent to and the same colour as the selected pixel.
A method for producing a component by means of an additive manufacturing process, wherein the component is entirely or partly produced from a liquid raw material , wherein the component is entirely or partly produced from a liquid raw material solidifiable by heating, wherein the raw material is dispensed in liquid form into a manufacturing zone and is, as a result of computer-controlled, punctual targeted light irradiation, heated and thereby solidified, by the impact point of a light beam of a light-beam source relative to the manufacturing zone being altered in a continuous and/or in a step-by-step manner, characterized in that the liquid raw material in the raw material dispensing unit is already preheated before dispensing and thus partially solidified by means of a preheating unit .