mhurhangee/patent-ind-claim-en huggingface dataset:
A nasal air moisturizing device to be used with a nasal cannula having a pair of nasal prongs for delivering gas to a patient's nostrils, said device comprising: - an external shell configured to be removably attached to the nasal cannula , the shell comprising an interior volume and a pair of apertures through which nasal prongs pass when the moisturizing device is attached to the nasal cannula ; - a moisture absorbent material at least partially disposed within the interior volume of the shell and including a pair of protrusions which extend outwardly through apertures in the shell , the protrusions configured: (a) to be positioned over nasal prongs of the nasal cannula when the shell is attached to the nasal cannula , and (b) to receive moisturizing liquid and release the moisturizing liquid into breathing gas being delivered through the prongs ; and - a reservoir carried by the shell and disposed within the interior volume of the shell , the reservoir configured to hold the moisturizing liquid, wherein the moisture absorbent material receives moisturizing liquid from the reservoir. - an external shell configured to be removably attached to the nasal cannula , the shell comprising an interior volume and a pair of apertures through which nasal prongs pass when the moisturizing device is attached to the nasal cannula ; - a moisture absorbent material at least partially disposed within the interior volume of the shell and including a pair of protrusions which extend outwardly through apertures in the shell , the protrusions configured: (a) to be positioned over nasal prongs of the nasal cannula when the shell is attached to the nasal cannula , and (b) to receive moisturizing liquid and release the moisturizing liquid into breathing gas being delivered through the prongs ; and (a) to be positioned over nasal prongs of the nasal cannula when the shell is attached to the nasal cannula , and (b) to receive moisturizing liquid and release the moisturizing liquid into breathing gas being delivered through the prongs ; and - a reservoir carried by the shell and disposed within the interior volume of the shell , the reservoir configured to hold the moisturizing liquid, wherein the moisture absorbent material receives moisturizing liquid from the reservoir.
A lipidoid nanoparticle for use in treating a human lipoprotein metabolism disorder or a cardiovascular disease, wherein the lipidoid nanoparticle comprises a lipid, a CRISPR/Cas9 mRNA, and a single guide RNA (sgRNA), wherein the sgRNA is single guide Angiopoietin-like 3 (sgANGPTL3) or single guide proprotein convertase subtilisin/kexin type 9 (sgPCSK9); wherein the lipid is represented by formula I: R Head -R Lipid (I), or a pharmaceutically acceptable salt thereof, wherein R Head is R a and R a ' are each independently R Lipid ; Z is a C 1 -C 20 bivalent aliphatic radical, a C 1 -C 20 bivalent heteroaliphatic radical, a bivalent aryl radical, or a bivalent heteroaryl radical; and R Lipid each independently is wherein: R 1 and R 2 are H, OH, NHR 30 , or SH; R 3 and R 4 are taken together to form an oxo (=O) group; X is CH 2 , O, NR 30 , or S; R 30 is H, C 1-6 alkyl, C 1-6 alkenyl, or C 1-6 alkynyl; m is an integer selected from 1-3; n is an integer selected from 1-14; p is 0 or 1; q is an integer selected from 1-10; and t is 0, 1, or 2. the sgRNA is single guide Angiopoietin-like 3 (sgANGPTL3) or single guide proprotein convertase subtilisin/kexin type 9 (sgPCSK9); wherein the lipid is represented by formula I: R Head -R Lipid (I), or a pharmaceutically acceptable salt thereof, wherein R Head is R a and R a ' are each independently R Lipid ; Z is a C 1 -C 20 bivalent aliphatic radical, a C 1 -C 20 bivalent heteroaliphatic radical, a bivalent aryl radical, or a bivalent heteroaryl radical; and R Lipid each independently is wherein: R 1 and R 2 are H, OH, NHR 30 , or SH; R 3 and R 4 are taken together to form an oxo (=O) group; X is CH 2 , O, NR 30 , or S; R 30 is H, C 1-6 alkyl, C 1-6 alkenyl, or C 1-6 alkynyl; m is an integer selected from 1-3; n is an integer selected from 1-14; p is 0 or 1; q is an integer selected from 1-10; and t is 0, 1, or 2. R Head is R a and R a ' are each independently R Lipid ; Z is a C 1 -C 20 bivalent aliphatic radical, a C 1 -C 20 bivalent heteroaliphatic radical, a bivalent aryl radical, or a bivalent heteroaryl radical; and R Lipid each independently is wherein: R 1 and R 2 are H, OH, NHR 30 , or SH; R 3 and R 4 are taken together to form an oxo (=O) group; X is CH 2 , O, NR 30 , or S; R 30 is H, C 1-6 alkyl, C 1-6 alkenyl, or C 1-6 alkynyl; m is an integer selected from 1-3; n is an integer selected from 1-14; p is 0 or 1; q is an integer selected from 1-10; and t is 0, 1, or 2. R 1 and R 2 are H, OH, NHR 30 , or SH; R 3 and R 4 are taken together to form an oxo (=O) group; X is CH 2 , O, NR 30 , or S; R 30 is H, C 1-6 alkyl, C 1-6 alkenyl, or C 1-6 alkynyl; m is an integer selected from 1-3; n is an integer selected from 1-14; p is 0 or 1; q is an integer selected from 1-10; and t is 0, 1, or 2.
A packaging bag including a multilayer film and having a steam releasing mechanism, wherein the multilayer film has at least a base layer and a welding layer; the steam releasing mechanism has at least a steam releasing portion formed to have a maximal width in a range of 3 to 20 mm; and the packaging bag has an internal pressure kept to be not more than 115 kPa during a period from the time the internal pressure is released through the steam releasing portion as a result of an increase in the internal pressure caused by heating in a microwave oven to the time the heating in the microwave oven finishes, characterized in that the multilayer film has a moisture content of not more than 1.0% in a state in which the packaging bag is filled with a content.
A method of forming a gypsum based product, the method comprising the steps of: calcining a mixture of water and gypsum under conditions of raised temperature and pressure within a vessel to produce an alpha-hemihydrate slurry therein, wherein the raised temperature comprises a temperature within the range 110°C to 170°C, and wherein the raised pressure comprises a pressure within the range 2 to 8 Bars; reducing the water content of the alpha-hemihydrate slurry to provide a separate water stream from the alpha-hemihydrate slurry; and subsequently passing the alpha-hemihydrate slurry from the vessel to a mixer for mixing with additional water to reduce the temperature of the alpha-hemihydrate slurry and to produce a settable slurry, which is arranged to set to form the gypsum based product, wherein the additional water has a temperature of 20-30°C. calcining a mixture of water and gypsum under conditions of raised temperature and pressure within a vessel to produce an alpha-hemihydrate slurry therein, wherein the raised temperature comprises a temperature within the range 110°C to 170°C, and wherein the raised pressure comprises a pressure within the range 2 to 8 Bars; reducing the water content of the alpha-hemihydrate slurry to provide a separate water stream from the alpha-hemihydrate slurry; and subsequently passing the alpha-hemihydrate slurry from the vessel to a mixer for mixing with additional water to reduce the temperature of the alpha-hemihydrate slurry and to produce a settable slurry, which is arranged to set to form the gypsum based product, wherein the additional water has a temperature of 20-30°C.
Mechanical timepiece of balance-spiral type, comprising a spiral spring , a balance and an escapement mechanism linked by an attachment point to the spiral spring and arranged to sustain an oscillation of the balance, in which the escapement mechanism is linked to the attachment point of the spiral spring by a part hereinafter called frame pivoted about the axis (A) of the balance, an outer end of the spiral spring is attached to this frame at a point situated on one side of the balance axis (A), and the escapement mechanism is situated on the other side of the axis (A) of the balance and acts on the pivoted frame to make it turn and thus make the attached end of the spiral spring turn, in which the balance is mounted on, and coaxial with, a fixed toothed crown and the frame bears, on said other side of the balance axis (A) a satellite which engages with said toothed crown and which is driven stepwise by the escapement mechanism , the timepiece comprising an escapement wheel coaxial and secured with the satellite , and an escapement lever with detent pivoting between an idle position engaging with the escapement wheel and a position of disengagement from the escapement wheel , and in which the outer end of the spiral spring is attached to the frame by a balance spring stud which extends vertically between the plane of the frame and the plane of the spiral spring , the plane of the spiral spring being disposed between the plane of the frame and the balance , characterized in that the escapement wheel has a plane of disengagement on its teeth interacting with a short arm of the escapement mechanism , said plane of disengagement preventing a very rapid return of the detent after the release thereof. the escapement mechanism is situated on the other side of the axis (A) of the balance and acts on the pivoted frame to make it turn and thus make the attached end of the spiral spring turn, in which the balance is mounted on, and coaxial with, a fixed toothed crown and the frame bears, on said other side of the balance axis (A) a satellite which engages with said toothed crown and which is driven stepwise by the escapement mechanism , the timepiece comprising an escapement wheel coaxial and secured with the satellite , and an escapement lever with detent pivoting between an idle position engaging with the escapement wheel and a position of disengagement from the escapement wheel , and in which the outer end of the spiral spring is attached to the frame by a balance spring stud which extends vertically between the plane of the frame and the plane of the spiral spring , the plane of the spiral spring being disposed between the plane of the frame and the balance , characterized in that the escapement wheel has a plane of disengagement on its teeth interacting with a short arm of the escapement mechanism , said plane of disengagement preventing a very rapid return of the detent after the release thereof.
Measuring instrument having an ultrasonic measuring unit , wherein the measuring instrument is configured so that it can be arranged on a movement axle of a machine , wherein an ultrasonic measurement can be carried out by means of the ultrasonic measuring unit in the arranged state of the ultrasonic measuring unit on the measuring instrument , wherein the ultrasonic measuring unit comprises a tubular sleeve and a resilient support element , wherein the tubular sleeve encloses the resilient support element , wherein the resilient support element consists of a material that conducts ultrasound waves, wherein the resilient support element protrudes beyond an outer edge of the tubular sleeve at a first end of the tubular sleeve , wherein the tubular sleeve and the resilient support element are intended to directly contact the surface to be measured during a sampling process of the measuring instrument , wherein the measuring instrument has a tactile sensor unit , wherein a sampling event between the measuring instrument and a surface to be measured is detectable by means of the tactile sensor unit , wherein the tubular sleeve is arranged in a manner mounted movably on the measuring instrument , wherein a relative movement of the tubular sleeve relative to the measuring instrument triggers the sampling event.
An optical fiber cable (i) comprising: a plurality of optical fibers ; a wrapping member that is provided on an outer periphery of the plurality of the optical fibers ; a linear body that is wound around an outer periphery of the wrapping member ; and an outer jacket that is provided on an outer periphery of the wrapping member and the linear body , characterized in that a thermal shrinkage ratio of the linear body is 0.2 % or less at temperatures between -40 °C and +85 °C; the wrapping member is a non-woven tape; and wherein an increase in transmission loss of the optical fibers before and after heat cycle test at a wavelength of 1.55 μm is 0.10 dB or less at temperatures between -40 °C and +85 °C. a plurality of optical fibers ; a wrapping member that is provided on an outer periphery of the plurality of the optical fibers ; a linear body that is wound around an outer periphery of the wrapping member ; and an outer jacket that is provided on an outer periphery of the wrapping member and the linear body , characterized in that a thermal shrinkage ratio of the linear body is 0.2 % or less at temperatures between -40 °C and +85 °C; the wrapping member is a non-woven tape; and wherein an increase in transmission loss of the optical fibers before and after heat cycle test at a wavelength of 1.55 μm is 0.10 dB or less at temperatures between -40 °C and +85 °C.
A battery module comprising: a module frame configured to include a lower plate and a pair of side walls constituting an internal space; a battery cell stack disposed in the internal space of the module frame to include a plurality of battery cells that are stacked to be adjacent to each other side by side; and a resin layer disposed between the lower plate and the battery cell stack wherein the resin layer includes a detection agent selected from a contrast agent and a coloring material wherein the contrast agent is a compound or a complex containing a metal selected from lead, barium and gadolinium, wherein the lower plate includes at least one injection hole, wherein when the detection agent is a coloring material, the lower plate includes at least one transparent window that is spaced from the at least one injection hole, the at least one transparent window having at least one detection hole formed in the lower plate and a transparent tape attached to an outer surface of the lower plate to correspond to the detection hole. a module frame configured to include a lower plate and a pair of side walls constituting an internal space; a battery cell stack disposed in the internal space of the module frame to include a plurality of battery cells that are stacked to be adjacent to each other side by side; and a resin layer disposed between the lower plate and the battery cell stack wherein the resin layer includes a detection agent selected from a contrast agent and a coloring material wherein the contrast agent is a compound or a complex containing a metal selected from lead, barium and gadolinium, wherein the lower plate includes at least one injection hole, wherein when the detection agent is a coloring material, the lower plate includes at least one transparent window that is spaced from the at least one injection hole, the at least one transparent window having at least one detection hole formed in the lower plate and a transparent tape attached to an outer surface of the lower plate to correspond to the detection hole.
A detonation transfer end fitting (884; 1009; 1109) comprising: a cylindrical outer housing (825; 1025) with an upper end and a lower end and a cylindrical axis; a first bore (824; 1024) of a first diameter along the cylindrical axis with a first end being the upper end and a second end, adapted to accept a detonating cord ; a second bore (822; 1021) of a second diameter along the cylindrical axis starting at the second end of the first bore (824; 1024) and having a third end adapted to accept a detonator, wherein the first bore (824; 1024) intersects the second bore (822; 1021) at the second end; and a third bore (820; 1020) tangential to the cylindrical axis and starting at the cylindrical outer housing (825; 1025) and ending at an intersection with the first bore (824; 1024) at the second end, wherein the transfer end fitting (884; 1009; 1109) further comprises a shoulder (823; 1023) narrower than the first bore (824; 1024) at the second end of the first bore, wherein the shoulder (823; 1023) prevents the detonating cord inserted into the first bore (824; 1024) from entering the second bore (822; 1021). a cylindrical outer housing (825; 1025) with an upper end and a lower end and a cylindrical axis; a first bore (824; 1024) of a first diameter along the cylindrical axis with a first end being the upper end and a second end, adapted to accept a detonating cord ; a second bore (822; 1021) of a second diameter along the cylindrical axis starting at the second end of the first bore (824; 1024) and having a third end adapted to accept a detonator, wherein the first bore (824; 1024) intersects the second bore (822; 1021) at the second end; and a third bore (820; 1020) tangential to the cylindrical axis and starting at the cylindrical outer housing (825; 1025) and ending at an intersection with the first bore (824; 1024) at the second end, wherein the transfer end fitting (884; 1009; 1109) further comprises a shoulder (823; 1023) narrower than the first bore (824; 1024) at the second end of the first bore, wherein the shoulder (823; 1023) prevents the detonating cord inserted into the first bore (824; 1024) from entering the second bore (822; 1021).
An industrial robot , in particular an articulated robot, comprising: at least one member which is rotatably supported on another component of the robot via a rotary joint; a sensor device for detecting the relative rotational movement between the member and the other component, wherein the sensor device comprises a sensor (50, 50', 50") and an indicator tape, and wherein the indicator tape is arranged on the member and the sensor (50, 50', 50") is arranged on the other component, or vice versa; and wherein the sensor (50, 50', 50") is configured to detect the indicators provided on the indicator tape to determine the relative rotational movement between the member and the component, wherein the robot further comprises at least one cover device (30; 40; 60) covering the indicator tape and at least the head of the sensor (50; 50'; 50") to protect the sensor device from dirt, characterized in that the cover device (30; 40; 60) is provided with brushes formed to prevent dirt from entering a gap between the cover device and a surface of the robot covered by the cover device and/or to strip dirt from the indicator tape. at least one member which is rotatably supported on another component of the robot via a rotary joint; a sensor device for detecting the relative rotational movement between the member and the other component, wherein the sensor device comprises a sensor (50, 50', 50") and an indicator tape, and wherein the indicator tape is arranged on the member and the sensor (50, 50', 50") is arranged on the other component, or vice versa; and wherein the sensor (50, 50', 50") is configured to detect the indicators provided on the indicator tape to determine the relative rotational movement between the member and the component, wherein the robot further comprises at least one cover device (30; 40; 60) covering the indicator tape and at least the head of the sensor (50; 50'; 50") to protect the sensor device from dirt, characterized in that the cover device (30; 40; 60) is provided with brushes formed to prevent dirt from entering a gap between the cover device and a surface of the robot covered by the cover device and/or to strip dirt from the indicator tape.
A method for manufacturing a polarizing element including locally bleached areas comprising: providing a polarizing element including a polyvinyl alcohol-based polarizer in which at least one of iodine and dichroic dye is oriented in a certain direction; partially bleaching the polyvinyl alcohol-based polarizer by bringing a bleaching solution into contact with one surface of the polyvinyl alcohol-based polarizer through a printing method; correcting an appearance of the partially bleached polarizing element; and washing and drying the polarizing element after the appearance correcting step, wherein the partially bleaching step is carried out using a method of an inkjet marking method, and wherein the step of correcting an appearance of the partially bleached polarizing element is carried out using a method of immersing the polarizing element into a crosslinking solution; immersing the polarizing element into a neutralizing solution; or immersion into a crosslinking solution and immersion into a neutralizing solution. providing a polarizing element including a polyvinyl alcohol-based polarizer in which at least one of iodine and dichroic dye is oriented in a certain direction; partially bleaching the polyvinyl alcohol-based polarizer by bringing a bleaching solution into contact with one surface of the polyvinyl alcohol-based polarizer through a printing method; correcting an appearance of the partially bleached polarizing element; and washing and drying the polarizing element after the appearance correcting step, wherein the partially bleaching step is carried out using a method of an inkjet marking method, and wherein the step of correcting an appearance of the partially bleached polarizing element is carried out using a method of immersing the polarizing element into a crosslinking solution; immersing the polarizing element into a neutralizing solution; or immersion into a crosslinking solution and immersion into a neutralizing solution.
An optical sensor device, comprising: an optical sensor comprising a set of sensor elements ; an optical filter with an angle-dependent wavelength characteristic comprising a set of optical channels configured to respectively pass light in different wavelength ranges to a subset of sensor elements, of the set of sensor elements of the optical sensor , based on an angle of incidence of the light on the respective channel; a phase mask configured to distribute a plurality of light beams associated with a point of a subject in an encoded pattern on an input surface of the optical filter ; and one or more processors configured to: obtain, from the optical sensor , sensor data associated with the point of the subject ; determine, based on the sensor data , spectral information associated with the point of the subject ; determine, based on the sensor data and information associated with the encoded pattern, spatial information associated with the point of the subject ; and perform one or more actions based on the spectral information and the spatial information . an optical sensor comprising a set of sensor elements ; an optical filter with an angle-dependent wavelength characteristic comprising a set of optical channels configured to respectively pass light in different wavelength ranges to a subset of sensor elements, of the set of sensor elements of the optical sensor , based on an angle of incidence of the light on the respective channel; a phase mask configured to distribute a plurality of light beams associated with a point of a subject in an encoded pattern on an input surface of the optical filter ; and one or more processors configured to: obtain, from the optical sensor , sensor data associated with the point of the subject ; determine, based on the sensor data , spectral information associated with the point of the subject ; determine, based on the sensor data and information associated with the encoded pattern, spatial information associated with the point of the subject ; and perform one or more actions based on the spectral information and the spatial information . obtain, from the optical sensor , sensor data associated with the point of the subject ; determine, based on the sensor data , spectral information associated with the point of the subject ; determine, based on the sensor data and information associated with the encoded pattern, spatial information associated with the point of the subject ; and perform one or more actions based on the spectral information and the spatial information .