mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic pipette system comprising: - a stationary contact surface , - a motor , configured to dispense liquid by actuating a piston in a cylinder , characterized in wherein the system further comprises an ejector assembly , comprising a mount for a pipette tip , wherein the motor is also configured to move the ejector assembly in a first direction in such a manner that the tip contacts the contact surface and disengages from the mount , wherein the motor is selectively coupled to the ejector assembly via a slide assembly wherein the slide assembly and ejector assembly are attached or detached from one another based on the position of the slide assembly . - a stationary contact surface , - a motor , configured to dispense liquid by actuating a piston in a cylinder , wherein the system further comprises an ejector assembly , comprising a mount for a pipette tip , wherein the motor is also configured to move the ejector assembly in a first direction in such a manner that the tip contacts the contact surface and disengages from the mount , wherein the motor is selectively coupled to the ejector assembly via a slide assembly wherein the slide assembly and ejector assembly are attached or detached from one another based on the position of the slide assembly .
Twisting instrument for a screw-in component with a tool recess , which comprises a drive shaft , a neck and a working part , - wherein the working part - as a spherical head having six teeth - has a spherical enveloping surface which is contacted at least both by the free end and by partial regions of the tooth-own tooth heads of the working part , - wherein there are six tooth gaps between the teeth , - wherein the neck or the drive shaft has a predetermined breaking zone , - wherein the neck consists of a neck transition zone , a neck main cylinder zone , a neck cone zone and a neck secondary cylinder zone , and - wherein the spherical head has a rear grip at the transition of the spherical head to the neck subcylinder zone , the radius contour of which merges tangentially into the neck subcylinder zone . - wherein the working part - as a spherical head having six teeth - has a spherical enveloping surface which is contacted at least both by the free end and by partial regions of the tooth-own tooth heads of the working part , - wherein there are six tooth gaps between the teeth , - wherein the neck or the drive shaft has a predetermined breaking zone , - wherein the neck consists of a neck transition zone , a neck main cylinder zone , a neck cone zone and a neck secondary cylinder zone , and - wherein the spherical head has a rear grip at the transition of the spherical head to the neck subcylinder zone , the radius contour of which merges tangentially into the neck subcylinder zone .
A method for producing a super absorbent polymer, comprising the steps of: crosslinking a water-soluble ethylenically unsaturated monomer having at least partially neutralized acidic groups in the presence of a foaming agent, a foam stabilizer, and an internal crosslinking agent to form a hydrogel polymer containing a first crosslinked polymer; drying, pulverizing and classifying the hydrogel polymer to form a base polymer power; and heat-treating and surface-crosslinking the base polymer powder in the presence of a surface crosslinking solution to form a super absorbent polymer particle, wherein the foam stabilizer comprises sugar ester, and polyethylene oxide-polypropylene oxide-polyethylene oxide (PEO-PPO-PEO), wherein the sugar ester is sucrose stearate, or sucrose isobutylate. crosslinking a water-soluble ethylenically unsaturated monomer having at least partially neutralized acidic groups in the presence of a foaming agent, a foam stabilizer, and an internal crosslinking agent to form a hydrogel polymer containing a first crosslinked polymer; drying, pulverizing and classifying the hydrogel polymer to form a base polymer power; and heat-treating and surface-crosslinking the base polymer powder in the presence of a surface crosslinking solution to form a super absorbent polymer particle, wherein the foam stabilizer comprises sugar ester, and polyethylene oxide-polypropylene oxide-polyethylene oxide (PEO-PPO-PEO), wherein the sugar ester is sucrose stearate, or sucrose isobutylate.
A method for detecting a demountable accessory in an image-forming device comprising a controller , the method comprising: capturing a first image using an optical sensor associated with a print platen of the image-forming device, wherein the print platen is to receive a substrate and the optical sensor is to capture an image of the demountable accessory on the print platen; carrying out an adjustment action by a handling mechanism of the image-forming device, the adjustment action for adjusting a position of a substrate on the print platen; capturing a second image by the optical sensor; analysing, using the controller, the first and second images to identify any displacement between the first and second captured images; analysing, using the controller, at least one of the first image and the second image to detect an accessory identifier ; and responsive to the analysing, determining the presence of the accessory and classifying the accessory based on the detected accessory identifier. capturing a first image using an optical sensor associated with a print platen of the image-forming device, wherein the print platen is to receive a substrate and the optical sensor is to capture an image of the demountable accessory on the print platen; carrying out an adjustment action by a handling mechanism of the image-forming device, the adjustment action for adjusting a position of a substrate on the print platen; capturing a second image by the optical sensor; analysing, using the controller, the first and second images to identify any displacement between the first and second captured images; analysing, using the controller, at least one of the first image and the second image to detect an accessory identifier ; and responsive to the analysing, determining the presence of the accessory and classifying the accessory based on the detected accessory identifier.
A composition comprising a C16:1n7-palmitoleate derivative and a palmitate derivative, wherein the composition has a ratio of the C16: 1n7-palmitoleate derivative to the palmitate derivative of 12:1 to 100:1 (weight: weight); (a) wherein the C16:1n7-palmitoleate derivative is palmitoleic acid, a pharmaceutically acceptable salt of palmitoleate, a (Ci-Cs)alkyl ester of palmitoleate, a monoglyceride of palmitoleic acid, a diglyceride of palmitoleic acid, or a triglyceride of palmitoleic acid; and (b) wherein the palmitate derivative is palmitic acid, a pharmaceutically acceptable salt of palmitate, a (Ci-Cs)alkyl ester of palmitate, a monoglyceride of palmitic acid, a diglyceride of palmitic acid, or a triglyceride of palmitic acid; for use in a method for treating dry eyes in a subject in need thereof. (a) wherein the C16:1n7-palmitoleate derivative is palmitoleic acid, a pharmaceutically acceptable salt of palmitoleate, a (Ci-Cs)alkyl ester of palmitoleate, a monoglyceride of palmitoleic acid, a diglyceride of palmitoleic acid, or a triglyceride of palmitoleic acid; and (b) wherein the palmitate derivative is palmitic acid, a pharmaceutically acceptable salt of palmitate, a (Ci-Cs)alkyl ester of palmitate, a monoglyceride of palmitic acid, a diglyceride of palmitic acid, or a triglyceride of palmitic acid;
A pipette tip for attachment to a mount, the pipette tip having: - a longitudinal axis ; and - a coupling section running in the longitudinal axis for sliding onto the mount, the coupling section having a first section and a second section axially offset from the first section in the sliding-on direction , and the first section having a smaller radial extent than the second section , and the pipette tip having a sealing section between the first and second sections with a sealing surface facing axially in the sliding-on direction for interacting with a sealing element of the mount, characterized in that the first section or the second section has an inner wall which tapers conically at least in sections counter to the sliding-on direction and into which is integrated a guide surface , which is cylindrical in relation to the longitudinal axis , wherein the cylindrical guide surface and the inner wall together form a step , the radial depth of which depends on the cone angle of the inner wall and the longitudinal extent of the cylindrical guide surface . - a longitudinal axis ; and - a coupling section running in the longitudinal axis for sliding onto the mount, the coupling section having a first section and a second section axially offset from the first section in the sliding-on direction , and the first section having a smaller radial extent than the second section , and the pipette tip having a sealing section between the first and second sections with a sealing surface facing axially in the sliding-on direction for interacting with a sealing element of the mount,
Aerosol-generating system, comprising an aerosol-generating device , a cartridge comprising a liquid agent, the cartridge being configured for being detachably connected to the aerosol-generating device and an aerosol-generating article , the aerosol-generating device comprising: a cavity for receiving the aerosol-generating article comprising an aerosol-forming substrate, and a heating element being configured to heat the aerosol-generating article received ir the cavity, the heating element comprising a compartment wall, characterised in that a first part of the compartment wall is located in the cavity and further characterised in that a second part of the compartment wall extends outside the cavity, wherein the second part of the compartment wall is configured to interact with the cartridge . an aerosol-generating device , a cartridge comprising a liquid agent, the cartridge being configured for being detachably connected to the aerosol-generating device and an aerosol-generating article , the aerosol-generating device comprising: a cavity for receiving the aerosol-generating article comprising an aerosol-forming substrate, and a heating element being configured to heat the aerosol-generating article received ir the cavity, the heating element comprising a compartment wall, characterised in that a first part of the compartment wall is located in the cavity and further characterised in that a second part of the compartment wall extends outside the cavity, wherein the second part of the compartment wall is configured to interact with the cartridge . a cavity for receiving the aerosol-generating article comprising an aerosol-forming substrate, and a heating element being configured to heat the aerosol-generating article received ir the cavity, the heating element comprising a compartment wall, characterised in that a first part of the compartment wall is located in the cavity and further characterised in that a second part of the compartment wall extends outside the cavity, wherein the second part of the compartment wall is configured to interact with the cartridge .
A turbine visual image inspection apparatus comprising: an optical tube housing having a viewing port ; and a visual image reflective mirror series mounted within the optical tube housing in optical alignment with the viewing port, the visual image reflective mirror series having spectral reflectivity from 550nm to 20μm, and capable of continuous operation at temperatures greater than 500 degrees Celsius, wherein the visual image reflective mirror series comprises a concave mirror , an objective reflector mirror , an ocular reflector mirror , and a convex mirror , wherein the concave mirror captures an optical visual image within its objective field of view and reflects the optical visual image to the objective reflector mirror, wherein the objective reflector mirror relays the optical visual image to the ocular reflector mirror, wherein the ocular reflector mirror reflects the optical visual image to the convex mirror, wherein the convex mirror focuses the optical visual image on a focal plane. an optical tube housing having a viewing port ; and a visual image reflective mirror series mounted within the optical tube housing in optical alignment with the viewing port, the visual image reflective mirror series having spectral reflectivity from 550nm to 20μm, and capable of continuous operation at temperatures greater than 500 degrees Celsius, wherein the visual image reflective mirror series comprises a concave mirror , an objective reflector mirror , an ocular reflector mirror , and a convex mirror , wherein the concave mirror captures an optical visual image within its objective field of view and reflects the optical visual image to the objective reflector mirror, wherein the objective reflector mirror relays the optical visual image to the ocular reflector mirror, wherein the ocular reflector mirror reflects the optical visual image to the convex mirror, wherein the convex mirror focuses the optical visual image on a focal plane.
A spectroscopy apparatus for analyzing skin comprising: detectors configured to obtain detection spectra of respective detection areas that are located at different positions of an object; and an information processor configured to obtain a target spectrum of a target area by using position information of the detection areas and the detection spectra obtained by the detectors, wherein the information processor is configured to obtain the target spectrum of the target area using the position information of the detection areas to calculate the relative position of at least one of the detection areas with respect to the target area as the relative position of at least one of the detection areas changes in response to an object movement, and wherein the information processor is configured to calculate the target spectrum by combining the detection spectra using contributions based on the position information of the detection areas with respect to the target area ; characterised in that the information processor is configured to calculate contribution rates for each of the detection areas from the distances (d1,d2,d3) between center points of the respective detection areas and a center point of the target area ; and in that the information processor is configured to calculate the target spectrum by linearly combining the detection spectra using the respective calculated contribution rates. detectors configured to obtain detection spectra of respective detection areas that are located at different positions of an object; and an information processor configured to obtain a target spectrum of a target area by using position information of the detection areas and the detection spectra obtained by the detectors, wherein the information processor is configured to obtain the target spectrum of the target area using the position information of the detection areas to calculate the relative position of at least one of the detection areas with respect to the target area as the relative position of at least one of the detection areas changes in response to an object movement, and wherein the information processor is configured to calculate the target spectrum by combining the detection spectra using contributions based on the position information of the detection areas with respect to the target area ; characterised in that the information processor is configured to calculate contribution rates for each of the detection areas from the distances (d1,d2,d3) between center points of the respective detection areas and a center point of the target area ; and in that the information processor is configured to calculate the target spectrum by linearly combining the detection spectra using the respective calculated contribution rates.
An assembly for a gas turbine engine , comprising: a rotating structure extending axially along and rotatable about a centerline ; a stationary structure extending circumferentially about the rotating structure , the stationary structure comprising stationary structure material; and a bushing radially between the rotating structure and the stationary structure , the bushing including a mount and a bearing within the mount , the mount comprising mount material, the mount material contacting the stationary structure material, the bearing comprising bearing material engaged with and rotatably supporting the rotating structure , and the bearing material comprising copper, characterised in that : the stationary structure material has a coefficient of thermal expansion, measured at 204°C, between 18 μm/m-°C and 27 μm/m-°C; the mount material has a coefficient of thermal expansion, measured at 204°C, between 16.2 μm/m-°C and 18 μm/m-°C; and the mount material comprises stainless steel. a rotating structure extending axially along and rotatable about a centerline ; a stationary structure extending circumferentially about the rotating structure , the stationary structure comprising stationary structure material; and a bushing radially between the rotating structure and the stationary structure , the bushing including a mount and a bearing within the mount , the mount comprising mount material, the mount material contacting the stationary structure material, the bearing comprising bearing material engaged with and rotatably supporting the rotating structure , and the bearing material comprising copper, the stationary structure material has a coefficient of thermal expansion, measured at 204°C, between 18 μm/m-°C and 27 μm/m-°C; the mount material has a coefficient of thermal expansion, measured at 204°C, between 16.2 μm/m-°C and 18 μm/m-°C; and the mount material comprises stainless steel.
Apparatus for adjusting an actuator to compensate for wear and tear modifications, for example of a clutch disc or a brake disc, the apparatus comprising: a linear actuator configured to perform, during normal operation, a linear actuation lasting for a time period; and a preloading element for providing a preloading force; characterized by a coupling element arranged to couple the linear actuator with the preloading element such that the linear actuation of said linear actuator deforms linearly the preloading element , wherein the coupling element comprises a fluid-based adjustment assembly configured to vary its length (L) with a time constant which is multiple times longer than the time period for the linear actuation during normal operation. a linear actuator configured to perform, during normal operation, a linear actuation lasting for a time period; and a preloading element for providing a preloading force; characterized by a coupling element arranged to couple the linear actuator with the preloading element such that the linear actuation of said linear actuator deforms linearly the preloading element , wherein the coupling element comprises a fluid-based adjustment assembly configured to vary its length (L) with a time constant which is multiple times longer than the time period for the linear actuation during normal operation.
An apparatus comprising means for: receiving, at a network repository function , from a first network function location information for a second network function or network function service in a specific location, and one or more query parameters; and causing information to be provided to said first network function about one or more second network functions or network function services, said one or more second network functions or network function services being selected to match the one or more query parameters when there is no match to said location information. receiving, at a network repository function , from a first network function location information for a second network function or network function service in a specific location, and one or more query parameters; and causing information to be provided to said first network function about one or more second network functions or network function services, said one or more second network functions or network function services being selected to match the one or more query parameters when there is no match to said location information.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting , to a base station, a first random access preamble; receiving , from the base station, a random access response including backoff information; determining a type of the UE and a type of a cause of the RRC connection; determining , a backoff value based on the backoff information and a scaling factor , in case that the type of the UE is associated with a machine type communication and the type of the cause of the RRC connection is a delayTolerantAccess; and transmitting a second random access preamble based on the backoff value. transmitting , to a base station, a first random access preamble; receiving , from the base station, a random access response including backoff information; determining a type of the UE and a type of a cause of the RRC connection; determining , a backoff value based on the backoff information and a scaling factor , in case that the type of the UE is associated with a machine type communication and the type of the cause of the RRC connection is a delayTolerantAccess; and transmitting a second random access preamble based on the backoff value.
A compound of formula I: in which: A 1 is N or CR 6 ; A 2 is N or CR 7 ; A 3 is N or CR 8 ; R 6 and R 8 , are each independently hydrogen, C 1 -C 10 alkyl, F, Br or CI; R 7 is independently hydrogen, C 1 -C 10 alkyl, F, Br, Cl or -OCR 9 in which R 9 is H or C 1 -C 6 alkyl; R 1 to R 4 are each independently alkyl C 1 -C 10 alkyl, or R 1 and R 2 and/or R 3 and R 4 join to form a 3-membered ring; A 4 is N or CR 12 ; A 5 is N or CR 13 ; A 6 is N or CR 14 ; A 7 is N or CR 15 ; each R 12 to R 15 is independently H, halogen or haloalkyl C 1 -C 10; and R 5 is -C(=O)R 16 or -C(=O)OR 16 in which R 16 is C 1 - 10 alkyl or R 5 is -COOH; with the proviso that at least one of A 1 to A 3 is N; and isomers thereof; in free or in salt form. A 1 is N or CR 6 ; A 2 is N or CR 7 ; A 3 is N or CR 8 ; R 6 and R 8 , are each independently hydrogen, C 1 -C 10 alkyl, F, Br or CI; R 7 is independently hydrogen, C 1 -C 10 alkyl, F, Br, Cl or -OCR 9 in which R 9 is H or C 1 -C 6 alkyl; R 1 to R 4 are each independently alkyl C 1 -C 10 alkyl, or R 1 and R 2 and/or R 3 and R 4 join to form a 3-membered ring; A 4 is N or CR 12 ; A 5 is N or CR 13 ; A 6 is N or CR 14 ; A 7 is N or CR 15 ; each R 12 to R 15 is independently H, halogen or haloalkyl C 1 -C 10; and R 5 is -C(=O)R 16 or -C(=O)OR 16 in which R 16 is C 1 - 10 alkyl or R 5 is -COOH; with the proviso that at least one of A 1 to A 3 is N; and isomers thereof; in free or in salt form.
An airfoil assembly for a gas turbine engine comprising: a first and second ceramic airfoil pieces each having first and second platforms and a hollow airfoil section connecting the first and second platforms ; first and second spars extending through, respectively, the hollow airfoil sections ; and characterized in that the airfoil assembly further comprises a seal having a seal body defining at least one orifice and a seal portion , the first spar extending through one of the at least one orifices and the seal portion bridging a mate face (M) between the first platforms of the first and second ceramic airfoil pieces . a first and second ceramic airfoil pieces each having first and second platforms and a hollow airfoil section connecting the first and second platforms ; first and second spars extending through, respectively, the hollow airfoil sections ; and characterized in that the airfoil assembly further comprises a seal having a seal body defining at least one orifice and a seal portion , the first spar extending through one of the at least one orifices and the seal portion bridging a mate face (M) between the first platforms of the first and second ceramic airfoil pieces .