mhurhangee/patent-ind-claim-en huggingface dataset:
A drive mechanism for a medicament delivery device, comprising: a housing having a proximal end and a distal end; a container carrier arranged within the housing and being axially movable in relation to the housing ; a drive assembly partially arranged within the housing and being axially movable in relation to the housing ; and wherein the drive assembly comprises a proximally extended rack arm ; a cogwheel arranged within the housing and being rotatable but axially fixed in relation to the housing ; wherein the cogwheel is selectively coupled to the rack arm through a tangential engagement with a first set of rack teeth or a second set of rack teeth which are arranged on the rack arm ; wherein the first set of rack teeth or the second set of rack teeth forces the cogwheel to rotate when the drive assembly is axially moved towards the proximal end in relation to the housing ; characterized in that the cogwheel further comprises a connecting member configured to connect to a counter connecting member which is arranged on the container carrier ; wherein the connecting member is a protruded pin perpendicularly arranged in relation to the edge of the cogwheel ; wherein the counter connecting member is a transverse recess ; and wherein the protruded pin is arranged in the transverse recess ; wherein the connecting member will gradually press on an edge of the transverse recess, such that the container carrier is moved axially by the connecting member , such that a rotational movement of the cogwheel is converted into a linear movement of the container carrier . a housing having a proximal end and a distal end; a container carrier arranged within the housing and being axially movable in relation to the housing ; a drive assembly partially arranged within the housing and being axially movable in relation to the housing ; and wherein the drive assembly comprises a proximally extended rack arm ; a cogwheel arranged within the housing and being rotatable but axially fixed in relation to the housing ; wherein the cogwheel is selectively coupled to the rack arm through a tangential engagement with a first set of rack teeth or a second set of rack teeth which are arranged on the rack arm ; wherein the first set of rack teeth or the second set of rack teeth forces the cogwheel to rotate when the drive assembly is axially moved towards the proximal end in relation to the housing ; characterized in that the cogwheel further comprises a connecting member configured to connect to a counter connecting member which is arranged on the container carrier ; wherein the connecting member is a protruded pin perpendicularly arranged in relation to the edge of the cogwheel ; wherein the counter connecting member is a transverse recess ; and wherein the protruded pin is arranged in the transverse recess ; wherein the connecting member will gradually press on an edge of the transverse recess, such that the container carrier is moved axially by the connecting member , such that a rotational movement of the cogwheel is converted into a linear movement of the container carrier .
A method of manufacturing a bonded body in which a copper member formed from copper or a copper alloy, and an aluminum member formed from an aluminum alloy in which a Si concentration is set in a range of 1 mass% to 25 mass% are bonded to each other, wherein in the aluminum member before the bonding, D90 of an equivalent circle diameter of a Si phase at a bonding surface with the copper member is set in a range of 1 μm to 8 μm, and the aluminum member and the copper member are subjected to solid-phase diffusion bonding. wherein in the aluminum member before the bonding, D90 of an equivalent circle diameter of a Si phase at a bonding surface with the copper member is set in a range of 1 μm to 8 μm, and the aluminum member and the copper member are subjected to solid-phase diffusion bonding.
An optical combiner lens, comprising: a first lens ; a second lens ; a lightguide in stack with the first lens and the second lens, wherein a first medium gap is defined within the stack and between the first lens and the lightguide , and wherein a second medium gap is defined within the stack and between the lightguide and the second lens ; an in-coupler physically coupled to the lightguide and positioned to receive light into the lightguide ; and an out-coupler physically coupled to the lightguide and positioned to output light from the lightguide , wherein the in-coupler is physically coupled to an input area of the lightguide that is not in registration with the first lens and the second lens , and wherein the lightguide is physically coupled to the first lens and the second lens by an edge support structure that holds the first lens , the lightguide , and the second lens in a spaced apart relation in the stack ; characterized in that , the edge support structure is made of a transparent material, or includes an aperture or transparent section to allow light to travel to the in-coupler in the input area of the lightguide within the edge support structure. a first lens ; a second lens ; a lightguide in stack with the first lens and the second lens, wherein a first medium gap is defined within the stack and between the first lens and the lightguide , and wherein a second medium gap is defined within the stack and between the lightguide and the second lens ; an in-coupler physically coupled to the lightguide and positioned to receive light into the lightguide ; and an out-coupler physically coupled to the lightguide and positioned to output light from the lightguide , wherein the in-coupler is physically coupled to an input area of the lightguide that is not in registration with the first lens and the second lens , and wherein the lightguide is physically coupled to the first lens and the second lens by an edge support structure that holds the first lens , the lightguide , and the second lens in a spaced apart relation in the stack ;
A method for forming a unitary article, comprising the following steps: i. provide at least two powder blends, each of the at least two powder blends being selected from the group consisting of at least one polymer powder, at least one polymer powder with at least one porogen powder, at least one polymer powder with at least one inorganic particle powder, and at least one polymer powder with at least one porogen powder and at least one inorganic particle powder, such that the at least two powder blends differ from one another in terms of content of the polymer powder, content of the porogen powder, content of the inorganic particle powder, or a combination thereof; ii. dispense each of the at least two powder blends into at least one mold; iii. compact each of the at least two powder blends into two or more preforms; iv. machine each of the two or more preforms into two or more parts with complementary mating surfaces; v. assemble the two or more parts with complementary mating surfaces to form an article assembly; vi. compression mold the article assembly to form a unitary article; vii. optionally form additional features in the unitary article; viii. leach porogen from the unitary article. i. provide at least two powder blends, each of the at least two powder blends being selected from the group consisting of at least one polymer powder, at least one polymer powder with at least one porogen powder, at least one polymer powder with at least one inorganic particle powder, and at least one polymer powder with at least one porogen powder and at least one inorganic particle powder, such that the at least two powder blends differ from one another in terms of content of the polymer powder, content of the porogen powder, content of the inorganic particle powder, or a combination thereof; ii. dispense each of the at least two powder blends into at least one mold; iii. compact each of the at least two powder blends into two or more preforms; iv. machine each of the two or more preforms into two or more parts with complementary mating surfaces; v. assemble the two or more parts with complementary mating surfaces to form an article assembly; vi. compression mold the article assembly to form a unitary article; vii. optionally form additional features in the unitary article; viii. leach porogen from the unitary article.
A therapeutically effective amount of a composition comprising a mixture of deoxycytidine (dC) and deoxythymidine (dT) for use in a method of treating thymidine kinase 2 (TK2) deficiency in a human subject in need thereof.
An aerosol-generating device comprising: at least one electric heater ; a first power supply configured to supply electrical energy only to the at least one electric heater ; a controller configured to control the supply of electrical energy from the first power supply to the at least one electric heater ; and a second power supply configured to supply electrical energy to the controller . at least one electric heater ; a first power supply configured to supply electrical energy only to the at least one electric heater ; a controller configured to control the supply of electrical energy from the first power supply to the at least one electric heater ; and a second power supply configured to supply electrical energy to the controller .
An upper for an article of footwear , comprising: a textile portion , the textile portion forming a throat area of the upper; a base portion , the base portion extending from a biteline area of the upper towards the throat area of the upper; and a tie structure , the tie structure extending through a first opening of the textile portion and a second opening of the base portion to secure the textile portion to the base portion at a location between the throat area of the upper and the biteline area of the upper, characterised in that the upper further comprises a grommet coupled to a loop formed by the tie structure , and wherein the grommet forms an aperture for receiving a fastening element . a textile portion , the textile portion forming a throat area of the upper; a base portion , the base portion extending from a biteline area of the upper towards the throat area of the upper; and a tie structure , the tie structure extending through a first opening of the textile portion and a second opening of the base portion to secure the textile portion to the base portion at a location between the throat area of the upper and the biteline area of the upper,
A laser auto-focus PM 2.5 dust sensor, comprising a sensor body and a detection system provided within the sensor body ; in the sensor body , an airflow channel is provided for gas to be detected to pass through; the detection system comprises a laser diode , a lens , and a photodiode ; characterized in that the laser diode and the lens are connected in match, and provided on one side of the airflow channel ; in cooperation with it, the photodiode is provided within the airflow channel , and located on the side of the laser diode producing a detection laser, wherein the laser PM 2.5 dust sensor further comprises a temperature control mechanism , which comprises a PCB , a temperature sensing assembly , and a telescopic assembly , whereat said PCB is able to obtain the temperature value of the working environment in which said sensor locates by means of said temperature sensing assembly , and further, according to the temperature value, is able to determine the moving direction and distance of the focus, whereat on the basis of the movement of said focus, said PCB is able to control said laser diode by the means of said telescopic assembly to extend toward said lens or to shrink far away from said lens , wherein the extending or shrinking distance is the same as the moving distance of said focus, such that said focus, which displaces due to temperature variation, can return to its original position; the laser diode is provided fixedly at the end of the telescopic assembly toward the airflow channel , while at the other end of the telescopic assembly is provided fixedly with the PCB ; the lens is provided fixedly between the laser diode and the airflow channel ; and the temperature sensing assembly and the telescopic assembly are connected electrically with the PCB respectively.
A wiring board comprising: an insulating base comprising a main face; a side face; a notch portion opened in the main face and the side face; and an inner-face electrode disposed on an inner face of the notch portion and to be connected to an external circuit board with solder therebetween, wherein, the inner-face electrode contains: nickel and gold at a surface portion thereof; more nickel than gold at a surface in an outer periphery section ; and more gold than nickel at a surface in an inner region. an insulating base comprising a main face; a side face; a notch portion opened in the main face and the side face; and an inner-face electrode disposed on an inner face of the notch portion and to be connected to an external circuit board with solder therebetween, wherein, the inner-face electrode contains: nickel and gold at a surface portion thereof; more nickel than gold at a surface in an outer periphery section ; and more gold than nickel at a surface in an inner region. nickel and gold at a surface portion thereof; more nickel than gold at a surface in an outer periphery section ; and more gold than nickel at a surface in an inner region.
A flow battery comprising: a first half-cell containing a first electrolyte solution ; a second half-cell containing a second electrolyte solution ; a first flow loop configured to circulate the first electrolyte solution through the first half-cell; a second flow loop configured to circulate the second electrolyte solution through the second half-cell; and at least one lamella clarifier ; the lamella clarifier comprising (a) an inflow location , (b) an outflow location , and (c) a solids outlet , wherein the inflow and outflow locations (72; 74) of the at least one lamella clarifier are serially positioned and in fluid communication within the first flow loop and/or the second flow loop , and wherein the solids outlet is fluidically coupled with one or more of (i) a heater, (ii) a filtration system; and (iii) a settling tank. a first half-cell containing a first electrolyte solution ; a second half-cell containing a second electrolyte solution ; a first flow loop configured to circulate the first electrolyte solution through the first half-cell; a second flow loop configured to circulate the second electrolyte solution through the second half-cell; and at least one lamella clarifier ; the lamella clarifier comprising (a) an inflow location , (b) an outflow location , and (c) a solids outlet , wherein the inflow and outflow locations (72; 74) of the at least one lamella clarifier are serially positioned and in fluid communication within the first flow loop and/or the second flow loop , and wherein the solids outlet is fluidically coupled with one or more of (i) a heater, (ii) a filtration system; and (iii) a settling tank.
An oven for cooking food, the oven comprising a supporting structure ; a muffle , which is housed inside the supporting structure , delimits a cooking chamber and comprises a wall , which has an opening ; a receptacle , which is configured to contain water and to be removably arranged in the muffle and through the opening in the wall ; a first resistor , which is configured to heat the cooking chamber and is housed below said wall ; and a second resistor , which is housed below the wall at the opening to directly heat the receptacle and vaporize the water contained in the receptacle , characterised in that the second resistor supports the receptacle.
An atomizer, characterized by comprising: an atomizing body , an atomizing base disposed at one end of the atomizing body , and a fixing member installed outside the atomizing base and connected with the atomizing body ; wherein the atomizing base is fixed in the atomizing body by the fixing member , and the fixing member is made of a metal material that can be adsorbed by a magnet and comprises a tabular main body portion corresponding to the atomizing base .
A temperature monitoring device comprising: a primary body comprising an inner circular perimeter; a temperature monitoring segment held by the primary body , the temperature monitoring segment comprising an inwardly extending thermal probe ; and a fastener assembly segment held by the primary body at a location that is circumferentially spaced apart from the temperature monitoring segment , wherein the fastener assembly segment comprises a circumferentially extending bracket that can be radially extended in a direction that is toward the inner circular perimeter of the device , the temperature monitoring device being characterised in that the circumferentially extending bracket extends by a circumferential extent that is between 30-90 degrees. a primary body comprising an inner circular perimeter; a temperature monitoring segment held by the primary body , the temperature monitoring segment comprising an inwardly extending thermal probe ; and a fastener assembly segment held by the primary body at a location that is circumferentially spaced apart from the temperature monitoring segment , wherein the fastener assembly segment comprises a circumferentially extending bracket that can be radially extended in a direction that is toward the inner circular perimeter of the device , the temperature monitoring device being characterised in that the circumferentially extending bracket extends by a circumferential extent that is between 30-90 degrees.
Door for a household refrigeration appliance with a door inner panel and a door outer panel , which are arranged on a single-piece multiple-sided door frame , characterised in that the door frame is open in the peripheral direction of the frame shape and a separate recessed handle element is arranged in an open peripheral section of the door frame .
A magnetic system for a medical implant system for a patient user, the magnetic system comprising an implant housing comprising: a ring-shaped implant receiver coil configured to lie underneath and parallel to overlying skin of an implanted patient for transcutaneous communication of an implant communications signal; and a ring-shaped attachment magnet configured to lie underneath and parallel to the overlying skin and radially surrounding the receiver coil , characterised in that the ring-shaped attachment magnet comprises a plurality of local magnetic sections, wherein each local magnetic section has an independent local magnetic dipole and an independent local magnetic dipole orientation, and wherein the independent local magnetic dipoles are oriented such that the exerted attractive holding force to an external part, which comprises a ring-shaped external attachment magnet where the ring-shaped attachment magnet and the ring-shaped external attachment magnet are aligned about a common center axis, has at least one distinguished maximum at one rotational angle about the common center axis relative to the ring-shaped attachment magnet. a ring-shaped implant receiver coil configured to lie underneath and parallel to overlying skin of an implanted patient for transcutaneous communication of an implant communications signal; and a ring-shaped attachment magnet configured to lie underneath and parallel to the overlying skin and radially surrounding the receiver coil , characterised in that the ring-shaped attachment magnet comprises a plurality of local magnetic sections, wherein each local magnetic section has an independent local magnetic dipole and an independent local magnetic dipole orientation, and wherein the independent local magnetic dipoles are oriented such that the exerted attractive holding force to an external part, which comprises a ring-shaped external attachment magnet where the ring-shaped attachment magnet and the ring-shaped external attachment magnet are aligned about a common center axis, has at least one distinguished maximum at one rotational angle about the common center axis relative to the ring-shaped attachment magnet.
A method of obtaining data with a sensor of an autonomous underwater vehicle or AUV, the AUV comprising a bladder which contains a gas and is exposed to ambient water pressure, the method comprising: a. generating a downward thrust force which causes the AUV to descend through a body of water, wherein the bladder contracts as the AUV descends due to an associated increase in the ambient water pressure, the contraction of the bladder causing the gas to compress and the AUV to become negatively buoyant; b. landing the AUV on a bed of the body of water; c. after the AUV has landed on the bed, operating the sensor to obtain data with the AUV stationary and negatively buoyant and a weight of the AUV supported by the bed; and d. after the data has been obtained, generating an upward thrust force which overcomes the negative buoyancy of the AUV and causes the AUV to ascend through the body of water, the ascent of the AUV causing the bladder to expand due to the associated decrease in the ambient water pressure, the expansion of the bladder causing the gas to decompress and the AUV to become neutrally buoyant, the bladder being closed and acting as a passive buoyancy system. a. generating a downward thrust force which causes the AUV to descend through a body of water, wherein the bladder contracts as the AUV descends due to an associated increase in the ambient water pressure, the contraction of the bladder causing the gas to compress and the AUV to become negatively buoyant; b. landing the AUV on a bed of the body of water; c. after the AUV has landed on the bed, operating the sensor to obtain data with the AUV stationary and negatively buoyant and a weight of the AUV supported by the bed; and d. after the data has been obtained, generating an upward thrust force which overcomes the negative buoyancy of the AUV and causes the AUV to ascend through the body of water, the ascent of the AUV causing the bladder to expand due to the associated decrease in the ambient water pressure, the expansion of the bladder causing the gas to decompress and the AUV to become neutrally buoyant, the bladder being closed and acting as a passive buoyancy system.
A method of analyzing a blood sample of a mammal, the method comprising: obtaining a cell-free mixture of the blood sample, the cell-free mixture including cell-free DNA from a plurality of cell lineages; contacting DNA fragments in the cell-free mixture with an assay corresponding to one or more differentially-methylated regions, each of the one or more differentially-methylated regions specific to a particular hematological cell lineage by being hypomethylated or hypermethylated relative to other cell lineages, wherein the particular hematological cell lineage is red blood cells; detecting a first number of methylated or unmethylated DNA fragments in the cell-free mixture at the one or more differentially-methylated regions based on signals obtained from the assay; determining a methylation level using the first number; and comparing the methylation level to one or more cutoff values as part of determining a classification of a hematological disorder in the mammal, wherein the hematological disorder is anemia. obtaining a cell-free mixture of the blood sample, the cell-free mixture including cell-free DNA from a plurality of cell lineages; contacting DNA fragments in the cell-free mixture with an assay corresponding to one or more differentially-methylated regions, each of the one or more differentially-methylated regions specific to a particular hematological cell lineage by being hypomethylated or hypermethylated relative to other cell lineages, wherein the particular hematological cell lineage is red blood cells; detecting a first number of methylated or unmethylated DNA fragments in the cell-free mixture at the one or more differentially-methylated regions based on signals obtained from the assay; determining a methylation level using the first number; and comparing the methylation level to one or more cutoff values as part of determining a classification of a hematological disorder in the mammal, wherein the hematological disorder is anemia.