mhurhangee/patent-ind-claim-en huggingface dataset:
A system for displaying a virtual object, the system comprising: a display device for displaying an environment; a video camera ; wherein the video camera is operable to capture a video image of an area of a user's environment, the size of the area in the video image being larger than the size of the area of the environment viewable at the display device; a motion predictor operable to predict a motion of the video camera; a scene processor operable to identify and process a portion of the captured video image that corresponds to an area of the environment that is expected to be made viewable at the display device, as a result of the predicted motion; an image generator configured to generate a virtual object for display in the view of the environment provided at the display device based on the processing of the portion of the captured video image; wherein the image generator is configured to output the virtual object for display in response to a detection of the predicted motion. a display device for displaying an environment; a video camera ; wherein the video camera is operable to capture a video image of an area of a user's environment, the size of the area in the video image being larger than the size of the area of the environment viewable at the display device; a motion predictor operable to predict a motion of the video camera; a scene processor operable to identify and process a portion of the captured video image that corresponds to an area of the environment that is expected to be made viewable at the display device, as a result of the predicted motion; an image generator configured to generate a virtual object for display in the view of the environment provided at the display device based on the processing of the portion of the captured video image; wherein the image generator is configured to output the virtual object for display in response to a detection of the predicted motion.
A method for producing a negative electrode , comprising the steps of: coating a negative electrode paste including a negative electrode active material and ceramic particles on a negative electrode current collector ; drying the coated negative electrode paste to form a negative electrode active material layer ; and pressing the negative electrode active material layer , wherein the ceramic particles have an aspect ratio of 1.5 or more and 20 or less, the ceramic particles have a short side length of 1/5 or less of an average particle diameter of the negative electrode active material, and in the negative electrode paste, the ceramic particles are contained in an amount of 3% by mass to 20% by mass based on a total solid content of the negative electrode paste. coating a negative electrode paste including a negative electrode active material and ceramic particles on a negative electrode current collector ; drying the coated negative electrode paste to form a negative electrode active material layer ; and pressing the negative electrode active material layer , wherein the ceramic particles have an aspect ratio of 1.5 or more and 20 or less, the ceramic particles have a short side length of 1/5 or less of an average particle diameter of the negative electrode active material, and in the negative electrode paste, the ceramic particles are contained in an amount of 3% by mass to 20% by mass based on a total solid content of the negative electrode paste.
An oral appliance for the treatment of sleep disorder breathing in a patient, the oral appliance comprising: a U shaped appliance body with a front section and two arms , the appliance body including an inner wall and an outer wall ; a web interconnecting the inner wall and the outer wall so as to define an upper dental arch receiving channel ; an air inlet member extending forward of the front section of the appliance body , the air inlet member forming an air inlet opening that is spaced from the appliance body for intake of air during inhalation; an air outlet member with an air outlet opening configured to locate above the patient's tongue in use and located horizontally adjacent or close to the hard palate at a position between the molars, for directing inhaled air between the patient's tongue and hard palate towards the patient's posterior oral cavity; and an air flow passageway communicating the air inlet opening with the air outlet opening. a U shaped appliance body with a front section and two arms , the appliance body including an inner wall and an outer wall ; a web interconnecting the inner wall and the outer wall so as to define an upper dental arch receiving channel ; an air inlet member extending forward of the front section of the appliance body , the air inlet member forming an air inlet opening that is spaced from the appliance body for intake of air during inhalation; an air outlet member with an air outlet opening configured to locate above the patient's tongue in use and located horizontally adjacent or close to the hard palate at a position between the molars, for directing inhaled air between the patient's tongue and hard palate towards the patient's posterior oral cavity; and an air flow passageway communicating the air inlet opening with the air outlet opening.
A recycling method of dihydrate gypsum from waste gypsum boards comprising: calcining gypsum derived from waste gypsum boards in order to convert gypsum into hemihydrate and/or anhydrous type III gypsum granules; dropping the gypsum granules after calcination into water in order to mix the gypsum granules with water for preparing gypsum slurry; and crystalizing dihydrate gypsum particles in said gypsum slurry, said method being characterized in that temperature of the gypsum granules just before dropped into water is made 90 °C or higher. calcining gypsum derived from waste gypsum boards in order to convert gypsum into hemihydrate and/or anhydrous type III gypsum granules; dropping the gypsum granules after calcination into water in order to mix the gypsum granules with water for preparing gypsum slurry; and crystalizing dihydrate gypsum particles in said gypsum slurry, said method being characterized in that temperature of the gypsum granules just before dropped into water is made 90 °C or higher.
An unmodified graft for use in a method of treating one or more disease(s) treatable by transplantation in a subject, wherein said method comprises a first step of introducing into said subject a modified graft, and a second step of introducing into said subject said unmodified graft, wherein said modified graft is a cell suspension graft containing immune cells, that comprises an anti-CD4 antibody, bound to CD4 epitopes of said cell suspension graft, and wherein said modified graft is obtainable by an in vitro method comprising the following steps: a) incubating a cell suspension graft containing immune cells with the anti-CD4 antibody, wherein said incubating is carried out for from 1 minute to 7 days, and b) removing unbound anti-CD4 antibody from said graft, thereby reducing the amount of unbound antibody in said graft, and wherein said unmodified graft and said modified graft are allogeneic grafts and comprise immune cells bearing the CD4 antigen. wherein said method comprises a first step of introducing into said subject a modified graft, and a second step of introducing into said subject said unmodified graft, wherein said modified graft is a cell suspension graft containing immune cells, that comprises an anti-CD4 antibody, bound to CD4 epitopes of said cell suspension graft, and wherein said modified graft is obtainable by an in vitro method comprising the following steps: a) incubating a cell suspension graft containing immune cells with the anti-CD4 antibody, wherein said incubating is carried out for from 1 minute to 7 days, and b) removing unbound anti-CD4 antibody from said graft, thereby reducing the amount of unbound antibody in said graft, a) incubating a cell suspension graft containing immune cells with the anti-CD4 antibody, wherein said incubating is carried out for from 1 minute to 7 days, and b) removing unbound anti-CD4 antibody from said graft, thereby reducing the amount of unbound antibody in said graft, and wherein said unmodified graft and said modified graft are allogeneic grafts and comprise immune cells bearing the CD4 antigen.
Lighting assembly for a vehicle, comprising: - a light source accommodated in a housing member and configured to emit light; - an outer lens coupled to the housing member , wherein at least a portion of the outer lens is positioned to receive light emitted from the light source and to transmit the received light to the outside; - a black mask member at least partially surrounding the portion of the outer lens ; the portion of the outer lens comprises an inner surface , wherein at least a part of the inner surface comprises an integrally formed surface texture to diffusively transmit light received from the light source ; characterized in that , the inner surface comprises a plurality of protrusions formed in the inner surface , wherein an entire surface of each protrusion including side surfaces comprises the surface texture , and an area between the protrusions is flat and does not comprise the surface texture . - a light source accommodated in a housing member and configured to emit light; - an outer lens coupled to the housing member , wherein at least a portion of the outer lens is positioned to receive light emitted from the light source and to transmit the received light to the outside; - a black mask member at least partially surrounding the portion of the outer lens ; the portion of the outer lens comprises an inner surface , wherein at least a part of the inner surface comprises an integrally formed surface texture to diffusively transmit light received from the light source ; characterized in that , the inner surface comprises a plurality of protrusions formed in the inner surface , wherein an entire surface of each protrusion including side surfaces comprises the surface texture , and an area between the protrusions is flat and does not comprise the surface texture .
Feeding device for feeding brittle grinding stock onto a roll gap formed between two rollers of a roller press , comprising - a material feed chute above the roll gap , and - a feed control device with a control element for controlling the flow of brittle grinding stock emerging from the feed chute and flowing towards the roll gap , wherein the control element has a lower delimiting surface which defines a clearance between the control element and the roller surface of a first of the two rollers for the passage of the brittle grinding stock , characterized in that the lower delimiting surface of the control element projects at each outer section , relative to the longitudinal extent of the roll gap , such that in the region of these two outer sections , the clearance between the control element and the roller surface of the first roller is narrower than the clearance between the control element and the roller surface of the first roller in the area of the central section of the lower delimiting surface of the control element located between the two outer sections . - a material feed chute above the roll gap , and - a feed control device with a control element for controlling the flow of brittle grinding stock emerging from the feed chute and flowing towards the roll gap , wherein the control element has a lower delimiting surface which defines a clearance between the control element and the roller surface of a first of the two rollers for the passage of the brittle grinding stock , characterized in that the lower delimiting surface of the control element projects at each outer section , relative to the longitudinal extent of the roll gap , such that in the region of these two outer sections , the clearance between the control element and the roller surface of the first roller is narrower than the clearance between the control element and the roller surface of the first roller in the area of the central section of the lower delimiting surface of the control element located between the two outer sections .
An apparatus comprising: a clocked data sampler having charging transistors configured to receive a control signal (b1, b2, bn) for generating a PVT-calibrated current (i1, i2, in), the clocked data sampler further configured to receive a pair of active input signals; a reference branch circuit configured to generate a process-voltage-temperature (PVT)-dependent reference voltage based on a reference current obtained via a band gap generator and having signal inputs tied to a common mode voltage of the pair of active input signals; a static analog calibration circuit having signal inputs tied to the common mode voltage of the pair of active input signals and configured to generate a PVT-dependent output voltage responsive to the common mode voltage of the pair of active input signals and an adjustable current; and a control signal generator configured to compare the PVT-dependent output voltage to the PVT-dependent reference voltage and to responsively adjust the PVT-dependent output voltage via updates to the control signal (b1, b2, bn) for adjusting the adjustable current through the static analog calibration circuit, the control signal further provided to the charging transistors for configuring the clocked data sampler with the PVT-calibrated current (i1, i2, in). a clocked data sampler having charging transistors configured to receive a control signal (b1, b2, bn) for generating a PVT-calibrated current (i1, i2, in), the clocked data sampler further configured to receive a pair of active input signals; a reference branch circuit configured to generate a process-voltage-temperature (PVT)-dependent reference voltage based on a reference current obtained via a band gap generator and having signal inputs tied to a common mode voltage of the pair of active input signals; a static analog calibration circuit having signal inputs tied to the common mode voltage of the pair of active input signals and configured to generate a PVT-dependent output voltage responsive to the common mode voltage of the pair of active input signals and an adjustable current; and a control signal generator configured to compare the PVT-dependent output voltage to the PVT-dependent reference voltage and to responsively adjust the PVT-dependent output voltage via updates to the control signal (b1, b2, bn) for adjusting the adjustable current through the static analog calibration circuit, the control signal further provided to the charging transistors for configuring the clocked data sampler with the PVT-calibrated current (i1, i2, in).
A process for preparing an aldaric acid and/or lactone(s) thereof, the process comprising: reacting (i) an aldose of formula (I) and/or lactone(s) thereof: HOCH 2 (HCOH) w CHO (I) wherein w is an integer from 0 to 10; or (ii) an aldonic acid of formula (II) and/or lactone(s) thereof: HOCH 2 (HCOH) x COOH (II) where x is an integer from 0 to 10; or (iii) a uronic acid of formula (III) and/or lactone(s) thereof: HOOC(HCOH) y CHO (III) wherein y is an integer from 0 to 10; in the presence of oxygen, a first catalyst comprising platinum, and a second catalyst comprising gold in a reaction zone to form a reaction mixture comprising the aldaric acid of formula (IV) and/or lactone(s) thereof, wherein the first catalyst and second catalyst are different, the first catalyst comprises a catalyst support, the second catalyst is a heterogeneous catalyst and comprises a catalyst support; wherein the aldaric acid and/or lactone(s) thereof is of formula (IV): HOOC(HCOH) z COOH (IV) wherein z is an integer from 0 to 10; and wherein in alternative (i) the reaction zone further comprises an oxidation catalyst. reacting (i) an aldose of formula (I) and/or lactone(s) thereof: HOCH 2 (HCOH) w CHO (I) wherein w is an integer from 0 to 10; or (ii) an aldonic acid of formula (II) and/or lactone(s) thereof: HOCH 2 (HCOH) x COOH (II) where x is an integer from 0 to 10; or (iii) a uronic acid of formula (III) and/or lactone(s) thereof: HOOC(HCOH) y CHO (III) wherein y is an integer from 0 to 10; (i) an aldose of formula (I) and/or lactone(s) thereof: HOCH 2 (HCOH) w CHO (I) wherein w is an integer from 0 to 10; or (ii) an aldonic acid of formula (II) and/or lactone(s) thereof: HOCH 2 (HCOH) x COOH (II) where x is an integer from 0 to 10; or (iii) a uronic acid of formula (III) and/or lactone(s) thereof: HOOC(HCOH) y CHO (III) wherein y is an integer from 0 to 10; in the presence of oxygen, a first catalyst comprising platinum, and a second catalyst comprising gold in a reaction zone to form a reaction mixture comprising the aldaric acid of formula (IV) and/or lactone(s) thereof, wherein the first catalyst and second catalyst are different, the first catalyst comprises a catalyst support, the second catalyst is a heterogeneous catalyst and comprises a catalyst support; wherein the aldaric acid and/or lactone(s) thereof is of formula (IV): HOOC(HCOH) z COOH (IV) wherein z is an integer from 0 to 10; and wherein in alternative (i) the reaction zone further comprises an oxidation catalyst.
A saltcore for casting with aluminum comprising: at least one cation of K + , Na + and Mg 2+ and at least one anion of Cl - and CO 3 2- , wherein Mg 2+ and CO 3 2- are included therein.
A method for producing a laminated film , wherein the method comprises - providing at least one structure comprising a transparent layer comprising transparent conductor material on a first non-conductive transparent base film , wherein the structure has a first outer surface and a second outer surface , which is opposite to the first outer surface; - providing a second non-conductive transparent base film having a first main surface and a second main surface , which is opposite to the first main surface ; characterized in that , the method further comprises, - arranging the at least one structure and the second non-conductive transparent base film one on the other to form a layered film preform, wherein at least the one of the first main surface and the second main surface that faces the at least one structure is provided with a surface roughness of 1.1 - 20 pm as measured according to ISO 4287/1997, and wherein at least the one of the first outer surface and the second outer surface that faces the second non-conductive transparent base film is provided with a surface roughness of above 0 - 1.0 pm as measured according to ISO 4287/1997; and - applying heat and pressure on the layered film preform for a predetermined period of time for bonding together the at least one structure and the second non-conductive transparent base film . - providing at least one structure comprising a transparent layer comprising transparent conductor material on a first non-conductive transparent base film , wherein the structure has a first outer surface and a second outer surface , which is opposite to the first outer surface; - providing a second non-conductive transparent base film having a first main surface and a second main surface , which is opposite to the first main surface ; characterized in that , the method further comprises, - arranging the at least one structure and the second non-conductive transparent base film one on the other to form a layered film preform, wherein at least the one of the first main surface and the second main surface that faces the at least one structure is provided with a surface roughness of 1.1 - 20 pm as measured according to ISO 4287/1997, and wherein at least the one of the first outer surface and the second outer surface that faces the second non-conductive transparent base film is provided with a surface roughness of above 0 - 1.0 pm as measured according to ISO 4287/1997; and - applying heat and pressure on the layered film preform for a predetermined period of time for bonding together the at least one structure and the second non-conductive transparent base film .
A laptop computer comprising: a lid portion comprising a display ; and a base portion pivotally coupled to the lid portion at a back side of the base portion and tapering to a reduced thickness along a front side of the base portion, the base portion comprising: a top case having a metal structure and defining a top wall having an opening therethrough; and a bottom case attached to the top case to define an interior volume of the laptop computer; a touch pad within the base portion and comprising a glass member positioned at least partially within the opening in the top case, the glass member having a first thickness at a front side of the glass member and a second thickness at a central region of the glass member, the second thickness greater than the first thickness. a lid portion comprising a display ; and a base portion pivotally coupled to the lid portion at a back side of the base portion and tapering to a reduced thickness along a front side of the base portion, the base portion comprising: a top case having a metal structure and defining a top wall having an opening therethrough; and a bottom case attached to the top case to define an interior volume of the laptop computer; a top case having a metal structure and defining a top wall having an opening therethrough; and a bottom case attached to the top case to define an interior volume of the laptop computer; a touch pad within the base portion and comprising a glass member positioned at least partially within the opening in the top case, the glass member having a first thickness at a front side of the glass member and a second thickness at a central region of the glass member, the second thickness greater than the first thickness.
A communication system for use in a facility comprising hazardous or harmful gas, the communication system comprising: a central server operable to receive information from a plurality of devices; one or more access points located throughout the facility , wherein the access points communicate wirelessly with other devices within the facility ; at least three beacons located within the facility , wherein the beacons transmit location information; one or more detector device located within the facility , wherein the detector device is operable to communicate with the beacons and the access points via wireless radio channels, and wherein the detector device comprises a single radio operable to switch between two or more radio channels, wherein: a first channel is used by the detector device to receive location data information from the one or more of the at least three beacons , wherein the detector device communicates with the beacon when the detector device is in the range for that specific beacon ; and a second channel is used by the detector device to communicate data to the central server via the one or more of the access points . a central server operable to receive information from a plurality of devices; one or more access points located throughout the facility , wherein the access points communicate wirelessly with other devices within the facility ; at least three beacons located within the facility , wherein the beacons transmit location information; one or more detector device located within the facility , wherein the detector device is operable to communicate with the beacons and the access points via wireless radio channels, and wherein the detector device comprises a single radio operable to switch between two or more radio channels, a first channel is used by the detector device to receive location data information from the one or more of the at least three beacons , wherein the detector device communicates with the beacon when the detector device is in the range for that specific beacon ; and a second channel is used by the detector device to communicate data to the central server via the one or more of the access points .