mhurhangee/patent-ind-claim-en huggingface dataset:
A wet pet food product comprising a moisture content of 40 to 90% and being in the form of a solids in gravy or solids in jelly product, wherein the solids comprise a solid pet food component, said solid pet food component having a moisture content of at least 40% and comprising: a) curdlan; b) a hydrocolloid selected from carrageenan, cassia, xanthan, pectin, alginate, agar gum, cellulose, methylcellulose, guar gum, gellan gum, galactomannans, konjac gum, carob gum, starch, modified starch, waxy starch, Arabic gum, karaya gum, tara gum, gum ghatti, gelatin, or any other hydrocolloid from a microbial, plant or animal source; and c) protein in particulate form; wherein the protein content of the solid pet food component is from 5 to 30% on a wet weight basis. a) curdlan; b) a hydrocolloid selected from carrageenan, cassia, xanthan, pectin, alginate, agar gum, cellulose, methylcellulose, guar gum, gellan gum, galactomannans, konjac gum, carob gum, starch, modified starch, waxy starch, Arabic gum, karaya gum, tara gum, gum ghatti, gelatin, or any other hydrocolloid from a microbial, plant or animal source; and c) protein in particulate form;
An absorbent article , such as a diaper or a training pant, having a wearer-facing side, a garment-facing side, a longitudinal axis and a transversal axis ; the absorbent article comprising: - a topsheet on the wearer-facing side; - a backsheet on the garment-facing side, the backsheet comprising a liquid impermeable film and optionally a nonwoven attached to the film; - an absorbent core between the topsheet and the backsheet; - optionally an acquisition layer between the absorbent core and the topsheet; wherein the absorbent core comprises a core wrap having a top side and a bottom side enclosing an absorbent material , wherein the absorbent material comprises a mixture of fibers and superabsorbent polymers, with the absorbent material comprising at least 55% of superabsorbent polymers by weight of absorbent material, in particular from 60% to 85% by weight of superabsorbent polymers by weight of absorbent material; wherein the absorbent core comprises two longitudinally-extending channels substantially free of absorbent material disposed symmetrically on each side of the longitudinal axis; characterized in that the channels are inwardly curved towards the longitudinal axis so that the channels have a closest distance (d1) and a farthest distance (d2, d3) from each other as measured in the transversal direction, wherein the closest distance is less than 80% of the farthest distance, preferably wherein the closest distance ranges from 10% to 70% of the farthest distance; and at least one of the topsheet or the acquisition layer , if present, is an air-through bonded carded nonwoven. - a topsheet on the wearer-facing side; - a backsheet on the garment-facing side, the backsheet comprising a liquid impermeable film and optionally a nonwoven attached to the film; - an absorbent core between the topsheet and the backsheet; - optionally an acquisition layer between the absorbent core and the topsheet;
Method for detecting an ingress of a short-wave radio signal in a power line communication system characterized by : determining a strength of a common-mode signal indicative of an external source or noise at a frequency of the power line communication system during a time period when no communication in the power line communication system at this frequency takes place; and detecting the ingress of the short-wave radio signal if the strength of the common-mode signal is above a predetermined threshold; determining a strength of at least one differential mode signal between phase line and neutral line, phase line and protective earth line, and neutral line and protective earth line at the frequency of the power line communication system during the time period when no communication in the power line communication system at this frequency takes place, wherein the detecting of the ingress is based on the strength of the at least one differential mode signal; wherein the detecting of the ingress is further based on a comparison of the differential mode and the common mode signals. determining a strength of a common-mode signal indicative of an external source or noise at a frequency of the power line communication system during a time period when no communication in the power line communication system at this frequency takes place; and detecting the ingress of the short-wave radio signal if the strength of the common-mode signal is above a predetermined threshold; determining a strength of at least one differential mode signal between phase line and neutral line, phase line and protective earth line, and neutral line and protective earth line at the frequency of the power line communication system during the time period when no communication in the power line communication system at this frequency takes place, wherein the detecting of the ingress is based on the strength of the at least one differential mode signal; wherein the detecting of the ingress is further based on a comparison of the differential mode and the common mode signals.
A digital communication system , comprising a master device and a number of slave devices coupled in communication with the master device over a shared data communication bus , the slave devices being designed to be arranged in a daisy-chain configuration during an address assignment procedure, wherein each slave device has a daisy-chain input (DC_IN) and a daisy-chain output (DC_OUT), the daisy-chain input of a slave device being coupled to the daisy-chain output of a previous slave device in the daisy chain configuration, the daisy-chain input of a first slave device being coupled to a daisy-chain enabling output (DC_EN) of the master device , wherein, during the address assignment procedure, the master device is configured to assign different respective dynamic addresses to the slave devices in order to address the slave devices for data communication, based on their arrangement in the daisy-chain configuration, characterized in that , according to the daisy chain arrangement, the daisy-chain output (DC_OUT) of a last slave device is coupled to a daisy-chain feedback input (FB_IN) of the master device ; and the master device is configured to check the value of the daisy-chain feedback input (FB_IN) to determine if the dynamic addressing procedure is complete. the slave devices being designed to be arranged in a daisy-chain configuration during an address assignment procedure, wherein each slave device has a daisy-chain input (DC_IN) and a daisy-chain output (DC_OUT), the daisy-chain input of a slave device being coupled to the daisy-chain output of a previous slave device in the daisy chain configuration, the daisy-chain input of a first slave device being coupled to a daisy-chain enabling output (DC_EN) of the master device , wherein, during the address assignment procedure, the master device is configured to assign different respective dynamic addresses to the slave devices in order to address the slave devices for data communication, based on their arrangement in the daisy-chain configuration, characterized in that , according to the daisy chain arrangement, the daisy-chain output (DC_OUT) of a last slave device is coupled to a daisy-chain feedback input (FB_IN) of the master device ; and the master device is configured to check the value of the daisy-chain feedback input (FB_IN) to determine if the dynamic addressing procedure is complete.
A secondary battery, comprising: a cathode; an anode; and an electrolytic solution including a sulfuric acid compound represented by the following formula , X n+ [M(Rf) a (CN) b (S0 4 ) c ] m- ... where X n+ is one of a metal ion and an onium ion, M is one of transition metal elements, and Group 13 elements, Group 14 elements, and Group 15 elements in the long form of the periodic table of the elements, Rf is one of a fluorine group (-F) and a monovalent fluorinated hydrocarbon group, a is an integer of 0 to 4, b is an integer of 0 to 5, c is an integer of 1 to 4, m is an integer of 1 to 3, and n is an integer of 1 or 2, characterized in that the cathode, the anode, and the electrolytic solution being provided inside a film-like outer package member. a cathode; an anode; and an electrolytic solution including a sulfuric acid compound represented by the following formula , X n+ [M(Rf) a (CN) b (S0 4 ) c ] m- ... where X n+ is one of a metal ion and an onium ion, M is one of transition metal elements, and Group 13 elements, Group 14 elements, and Group 15 elements in the long form of the periodic table of the elements, Rf is one of a fluorine group (-F) and a monovalent fluorinated hydrocarbon group, a is an integer of 0 to 4, b is an integer of 0 to 5, c is an integer of 1 to 4, m is an integer of 1 to 3, and n is an integer of 1 or 2, characterized in that the cathode, the anode, and the electrolytic solution being provided inside a film-like outer package member.
A surface modification method for modifying a surface of a rubber vulcanizate having a Shore A hardness of 55 to 90 as a modification target, the Shore A hardness being determined using a type-A durometer at 23°C in accordance with JIS K 6253 "Rubber, vulcanized or thermoplastic - Determination of hardness", the method comprising: step 1 of adding a silane compound to the surface of the modification target; and step 2 of reacting at least a fluoroalkyl group-containing silane compound and a perfluoroether group-containing silane compound to form a surface-modified layer. step 1 of adding a silane compound to the surface of the modification target; and step 2 of reacting at least a fluoroalkyl group-containing silane compound and a perfluoroether group-containing silane compound to form a surface-modified layer.
A system for navigating to a target through a patient's bronchial tree, the system comprising: a bronchoscope configured for insertion into the patient's bronchial tree, the bronchoscope defining a working channel; a probe insertable into the working channel of the bronchoscope and configured to navigate through the patient's bronchial tree, the probe including a location sensor ; and a workstation in operative communication with the probe and the bronchoscope, the workstation including a memory and at least one processor , the memory storing a navigation plan and a program that, when executed by the processor, presents a user interface that guides a user through the navigation plan, the user interface configured to present a target alignment view for assisting the user in aligning a distal tip of the probe with the target, wherein the processor executes a maximum intensity projection (MIP) algorithm which highlights structures within a limited range from a distal tip of the location sensor. a bronchoscope configured for insertion into the patient's bronchial tree, the bronchoscope defining a working channel; a probe insertable into the working channel of the bronchoscope and configured to navigate through the patient's bronchial tree, the probe including a location sensor ; and a workstation in operative communication with the probe and the bronchoscope, the workstation including a memory and at least one processor , the memory storing a navigation plan and a program that, when executed by the processor, presents a user interface that guides a user through the navigation plan, the user interface configured to present a target alignment view for assisting the user in aligning a distal tip of the probe with the target, wherein the processor executes a maximum intensity projection (MIP) algorithm which highlights structures within a limited range from a distal tip of the location sensor.
A method for Listen-Before-Talk, LBT, failure detection performed by a User Equipment, UE, the method comprising: receiving, by a Medium Access Control, MAC, entity of the UE, a Listen-Before-Talk, LBT, failure indication from a lower layer of the UE for all uplink, UL, transmissions; increasing an LBT failure counter when the MAC entity receives the LBT failure indication; determining that an LBT failure event has occured when the LBT failure counter is greater than or equal to a threshold; and resetting the LBT failure counter when a reset of the MAC entity is requested by an upper layer of the UE. receiving, by a Medium Access Control, MAC, entity of the UE, a Listen-Before-Talk, LBT, failure indication from a lower layer of the UE for all uplink, UL, transmissions; increasing an LBT failure counter when the MAC entity receives the LBT failure indication; determining that an LBT failure event has occured when the LBT failure counter is greater than or equal to a threshold; and resetting the LBT failure counter when a reset of the MAC entity is requested by an upper layer of the UE.
A method for producing an abrasive article comprising: providing a removable support sheet having a first major support surface ; printing an image layer comprising inks onto the first major support surface ; extruding a backing layer onto the image layer forming a first major backing surface over the image layer and a second major backing surface opposite the first major backing surface ; applying a functional layer onto the second major backing surface ; and separating the removable support sheet from the backing layer while leaving the image layer attached to the first major backing surface . providing a removable support sheet having a first major support surface ; printing an image layer comprising inks onto the first major support surface ; extruding a backing layer onto the image layer forming a first major backing surface over the image layer and a second major backing surface opposite the first major backing surface ; applying a functional layer onto the second major backing surface ; and separating the removable support sheet from the backing layer while leaving the image layer attached to the first major backing surface .
A computer-implemented method comprising: determining a trajectory of a positioning receiver, wherein the positioning receiver provides data for using a differential positioning system to determine location data; selecting one or more locations along the trajectory; scanning a base station network to find a plurality of base stations for the one or more locations, wherein the plurality of base stations provide location correction data for differential positioning and wherein the scanning of the base station network comprises determining that the location correction data is available from the plurality of base stations; and providing a prioritized list of the plurality of base stations for performing the differential positioning, wherein the prioritized list comprises only base stations with available location correction data for a time of the trajectory. determining a trajectory of a positioning receiver, wherein the positioning receiver provides data for using a differential positioning system to determine location data; selecting one or more locations along the trajectory; scanning a base station network to find a plurality of base stations for the one or more locations, wherein the plurality of base stations provide location correction data for differential positioning and wherein the scanning of the base station network comprises determining that the location correction data is available from the plurality of base stations; and providing a prioritized list of the plurality of base stations for performing the differential positioning, wherein the prioritized list comprises only base stations with available location correction data for a time of the trajectory.
Dosage form, comprising a biologically active ingredient for use in treating or preventing of a disease in the animal or human body, which treatment or prevention requires the release of 50 % or more of the biologically active ingredient in the small intestine within the pH range from 3 up to 5.5, wherein the dosage form comprises: a) a core, comprising the biologically active ingredient, b) an intermediate coating layer (ICL) onto or above the core, comprising an alkaline agent and c) an enteric coating layer (ECL) onto or above the intermediate coating layer, comprising an enteric polymer, wherein the relation of the alkaline agent to the enteric polymer is 5 to 95 % when calculated by the formula: quantity of alkaline agent in grams in the ICL × 100 quantity of alkaline agent in grams in the ICL + quantity of enteric polymer in grams in the ECL wherein biologically active ingredients which are proton-pump inhibitors belonging to the class of substituted benzimidazole compounds are excepted. a) a core, comprising the biologically active ingredient, b) an intermediate coating layer (ICL) onto or above the core, comprising an alkaline agent and c) an enteric coating layer (ECL) onto or above the intermediate coating layer, comprising an enteric polymer,
A battery system including a plurality of rechargeable battery packs (P1, P2), the battery system comprising: a first battery pack (P1) that is rechargeable; a second battery pack (P2) that is rechargeable independently of the first battery pack; a first switching element (20-1; 120) configured to switch the first battery pack among a charging node (Nc1), a discharging node (Nd1) and an open node (No1); a second switching element (20-2; 121) configured to switch the second battery pack among a charging node (Nc2), a discharging node (Nd2) and an open node (No2); and a controller configured to control switching states of the first switching element and the second switching element based on usage states and states of charge of the first battery pack and the second battery pack, characterized in that : each of the first battery pack and the second battery pack further includes a wireless power transmission/reception module (W1, W2); and when the first battery pack (P1) is switched to the charging node (Nc1) and the second battery pack (P2) is switched to the open node (No2), the second battery pack (P2) wirelessly transmits power to the first battery pack (P1) through the wireless power transmission/reception module (W1, W2). a first battery pack (P1) that is rechargeable; a second battery pack (P2) that is rechargeable independently of the first battery pack; a first switching element (20-1; 120) configured to switch the first battery pack among a charging node (Nc1), a discharging node (Nd1) and an open node (No1); a second switching element (20-2; 121) configured to switch the second battery pack among a charging node (Nc2), a discharging node (Nd2) and an open node (No2); and a controller configured to control switching states of the first switching element and the second switching element based on usage states and states of charge of the first battery pack and the second battery pack, characterized in that : each of the first battery pack and the second battery pack further includes a wireless power transmission/reception module (W1, W2); and when the first battery pack (P1) is switched to the charging node (Nc1) and the second battery pack (P2) is switched to the open node (No2), the second battery pack (P2) wirelessly transmits power to the first battery pack (P1) through the wireless power transmission/reception module (W1, W2). each of the first battery pack and the second battery pack further includes a wireless power transmission/reception module (W1, W2); and when the first battery pack (P1) is switched to the charging node (Nc1) and the second battery pack (P2) is switched to the open node (No2), the second battery pack (P2) wirelessly transmits power to the first battery pack (P1) through the wireless power transmission/reception module (W1, W2).
A photocurable composition composed mainly of an anthracene derivative including three or more anthracene moiety-containing groups per molecule which is liquid at room temperature, characterized in that said composition makes a transition from a fluid state to a non-fluid state when it is irradiated with light, and even after being restored back to room temperature after heating, said composition remains in a fluid state.
A touchpad device (148; 202), comprising: a touch sensor for detecting touch events, the touch sensor hingeably attached at a first edge to an information handling system (100; 200); characterized in that the device further comprises: three tactile switches coupled to the touch sensor to detect click events, wherein the three tactile switches are coupled to the touch sensor at a second edge opposite the first edge; wherein the three tactile switches operate in parallel to detect a click event such that activation of any tactile switch triggers the click event; and wherein the three tactile switches are equally spaced apart from one another along a line that is parallel to the first edge, wherein a first and a second tactile switch (302-2; 302-3) are arranged near opposite corners of the touchpad device and a third tactile switch (302-1) is arranged centered between the first and second tactile switches, so that tactile feedback is improved due to the distribution of the force feedback among the three tactile switches . a touch sensor for detecting touch events, the touch sensor hingeably attached at a first edge to an information handling system (100; 200); characterized in that the device further comprises: three tactile switches coupled to the touch sensor to detect click events, wherein the three tactile switches are coupled to the touch sensor at a second edge opposite the first edge; wherein the three tactile switches operate in parallel to detect a click event such that activation of any tactile switch triggers the click event; and wherein the three tactile switches are equally spaced apart from one another along a line that is parallel to the first edge, wherein a first and a second tactile switch (302-2; 302-3) are arranged near opposite corners of the touchpad device and a third tactile switch (302-1) is arranged centered between the first and second tactile switches, so that tactile feedback is improved due to the distribution of the force feedback among the three tactile switches . three tactile switches coupled to the touch sensor to detect click events, wherein the three tactile switches are coupled to the touch sensor at a second edge opposite the first edge; wherein the three tactile switches operate in parallel to detect a click event such that activation of any tactile switch triggers the click event; and wherein the three tactile switches are equally spaced apart from one another along a line that is parallel to the first edge, wherein a first and a second tactile switch (302-2; 302-3) are arranged near opposite corners of the touchpad device and a third tactile switch (302-1) is arranged centered between the first and second tactile switches, so that tactile feedback is improved due to the distribution of the force feedback among the three tactile switches .
A lubricant , comprising: - at least 45 wt% of a paraffin oil - less than 8 wt% of a pyrophosphate or triphosphate, and in particular metal salts of the pyrophosphates or triphosphates, - more than 6 wt% of a group 6 disulfide or diselenide, - up to 27.5 wt% of graphite. - at least 45 wt% of a paraffin oil - less than 8 wt% of a pyrophosphate or triphosphate, and in particular metal salts of the pyrophosphates or triphosphates, - more than 6 wt% of a group 6 disulfide or diselenide, - up to 27.5 wt% of graphite.