mhurhangee/patent-ind-claim-en huggingface dataset:
A sheet of two or more panels for a computer server rack unit, each panel having: a pair of longitudinally extending side edges, spaced apart end edges located between said side edges, wherein said side and end edges define a periphery enclosing first and second substantially planar side surfaces located between said side and end edges; an elongate rib located along and extending away from said first side surface, the elongate rib extending parallel to the side edges and substantially along a length of said first side surface; at least one member having the same height as, and perpendicular to, the elongate rib, the at least one member extending away from said first side surface and extending parallel to the end edges; characterised in that two or more snap locking engagement clips extending away from said first side surface and located adjacent each said end edge, said two or more engagement clips in use operable to secure at least one panel in said sheet of two or more panels to the computer server rack unit; and a groove extending along adjoining side edges of two adjacent panels of the two or more panels, the groove configured to assist with separating the two adjacent panels by application of a force, wherein the elongate rib is configured to act as a spacer to thereby give rigidity to the panel and protect the two or more engagement clips in packing and transportation; and wherein no walls extend from said first side surface along the periphery, in an orientation perpendicular to said first side surface. a pair of longitudinally extending side edges, spaced apart end edges located between said side edges, wherein said side and end edges define a periphery enclosing first and second substantially planar side surfaces located between said side and end edges; an elongate rib located along and extending away from said first side surface, the elongate rib extending parallel to the side edges and substantially along a length of said first side surface; at least one member having the same height as, and perpendicular to, the elongate rib, the at least one member extending away from said first side surface and extending parallel to the end edges; characterised in that two or more snap locking engagement clips extending away from said first side surface and located adjacent each said end edge, said two or more engagement clips in use operable to secure at least one panel in said sheet of two or more panels to the computer server rack unit; and a groove extending along adjoining side edges of two adjacent panels of the two or more panels, the groove configured to assist with separating the two adjacent panels by application of a force, wherein the elongate rib is configured to act as a spacer to thereby give rigidity to the panel and protect the two or more engagement clips in packing and transportation; and wherein no walls extend from said first side surface along the periphery, in an orientation perpendicular to said first side surface.
A continuous mixing apparatus for a powder/granular material and a viscous liquid, provided with a mixing cylinder , a shaft member which is provided on a central axis of the mixing cylinder and which rotates inside the mixing cylinder , and a plurality of mixing paddles disposed on a surface of the shaft member , wherein: the mixing cylinder is provided with a powder/granular material feed port on one end portion, a mixed material discharge port on another end portion, and a viscous liquid injection unit between the powder/granular material feed port and the mixed material discharge port ; the plurality of mixing paddles are disposed on the shaft member so as to form a spiral around the central axis; and the plurality of mixing paddles are, in at least a portion between the viscous liquid injection unit and the mixed material discharge port , attached so as to alternately provide a first row having an attachment angle of 5° to 60°, from the direction of the mixed material discharge port , with respect to the central axis, and a second row having an attachment angle of -5° to 5° with respect to the central axis. the mixing cylinder is provided with a powder/granular material feed port on one end portion, a mixed material discharge port on another end portion, and a viscous liquid injection unit between the powder/granular material feed port and the mixed material discharge port ; the plurality of mixing paddles are disposed on the shaft member so as to form a spiral around the central axis; and the plurality of mixing paddles are, in at least a portion between the viscous liquid injection unit and the mixed material discharge port , attached so as to alternately provide a first row having an attachment angle of 5° to 60°, from the direction of the mixed material discharge port , with respect to the central axis, and a second row having an attachment angle of -5° to 5° with respect to the central axis.
A method for laser cutting and post-cut processing a part from a hard dielectric material having a Mohs hardness greater than 5, the method being characterised by the following steps: cutting at least one part from a hard dielectric material (3 02) using at least a first laser beam , wherein the first laser beam (3 11) is emitted from a first laser system (3 10) comprising a continuous wave (CW) single mode (SM) fiber laser operating in a quasi-continuous wave ("QCW") mode with a duty cycle ranging between about 1% and about 15% so as to emit consecutive pulses of laser light at a wavelength ranging between about 1060 nm and about 1070 nm and with a pulse width ranging between about 10 microseconds and about 600 microseconds; and post-cut processing cut edges of the at least one part using at least a second laser beam emitted from a second laser system (3 20) to bevel and/or polish the cut edges of the at least one part such that edge defects are reduced, wherein the second laser system (3 20) emits laser light at a shorter wavelength than the first laser system . cutting at least one part from a hard dielectric material (3 02) using at least a first laser beam , wherein the first laser beam (3 11) is emitted from a first laser system (3 10) comprising a continuous wave (CW) single mode (SM) fiber laser operating in a quasi-continuous wave ("QCW") mode with a duty cycle ranging between about 1% and about 15% so as to emit consecutive pulses of laser light at a wavelength ranging between about 1060 nm and about 1070 nm and with a pulse width ranging between about 10 microseconds and about 600 microseconds; and post-cut processing cut edges of the at least one part using at least a second laser beam emitted from a second laser system (3 20) to bevel and/or polish the cut edges of the at least one part such that edge defects are reduced, wherein the second laser system (3 20) emits laser light at a shorter wavelength than the first laser system .
A reception coupling for air-to-air refuelling comprising: a main body comprising a fuel passage for allowing fuel to flow through the reception coupling and a valve member which is movable, under action of a receiver aircraft probe , in an upstream direction from a first position in which the fuel passage is closed to a second position in which the fuel passage is open for allowing air-to-air refuelling, the reception coupling further comprising a chamber defined by a chamber wall , which chamber is separate from the fuel passage and within which a portion of the valve member can be accommodated as the valve member moves towards the second position, so shielding said portion of the valve member from effects of pressure in the fuel passage which would tend to resist movement of the valve member towards the second position; characterised in that the chamber wall comprises at least one aperture and the chamber is in fluid communication with the atmosphere via at least one channel extending between the aperture and the atmosphere, thereby allowing fluid to move out of the chamber as the portion of the valve member moves into the chamber .
A communication method related to a change of an application server performed by a Session Management Function, SMF, node , the method comprising: receiving capability information that a User Equipment, UE, is able to process information related to a changed application server from the UE ; transmitting a notification message informing that a user plane, UP, path is changed, to an Application Function, AF, node , wherein the AF node manages one or more application servers, wherein the notification message includes information for requesting the IP address of the changed application server when the application server is changed, based on the received capability information; receiving a response message from the AF node in response to the notification message; wherein the response message includes information on the IP address of the changed application server when the AF node succeeded in changing the application server; and transmitting a message including information on the IP address of the changed application server to the UE through an Access and Mobility Management Function, AMF, node . receiving capability information that a User Equipment, UE, is able to process information related to a changed application server from the UE ; transmitting a notification message informing that a user plane, UP, path is changed, to an Application Function, AF, node , wherein the AF node manages one or more application servers, wherein the notification message includes information for requesting the IP address of the changed application server when the application server is changed, based on the received capability information; receiving a response message from the AF node in response to the notification message; wherein the response message includes information on the IP address of the changed application server when the AF node succeeded in changing the application server; and transmitting a message including information on the IP address of the changed application server to the UE through an Access and Mobility Management Function, AMF, node .
A vertical wind tunnel for raising persons by use of air flow, comprising a flight platform ; an air flow generating device associated with the flight platform and generating a vertical air flow through a channel arranged in a middle of the flight platform ; the flight platform comprising: a safety mattress positioned around the channel ; and a net assembly , characterized in that the net assembly comprises a flexible net ring and a net , wherein the net ring is positioned around the channel and above the safety mattress and the net ring comprises connectors for connecting the net to the net ring , and wherein the flexible net ring is designed to be resilient and elastic, so that the net ring may absorb energy by its deformation and return to its original size and shape when that influence of force of a user is removed; an upholstery ring arranged above the flexible net ring and covering the flexible net ring ; a mattress cover arranged above the safety mattress and the upholstery ring for covering thereof. a flight platform ; an air flow generating device associated with the flight platform and generating a vertical air flow through a channel arranged in a middle of the flight platform ; the flight platform comprising: a safety mattress positioned around the channel ; and a net assembly , characterized in that the net assembly comprises a flexible net ring and a net , wherein the net ring is positioned around the channel and above the safety mattress and the net ring comprises connectors for connecting the net to the net ring , and wherein the flexible net ring is designed to be resilient and elastic, so that the net ring may absorb energy by its deformation and return to its original size and shape when that influence of force of a user is removed; an upholstery ring arranged above the flexible net ring and covering the flexible net ring ; a mattress cover arranged above the safety mattress and the upholstery ring for covering thereof. a safety mattress positioned around the channel ; and a net assembly , characterized in that the net assembly comprises a flexible net ring and a net , wherein the net ring is positioned around the channel and above the safety mattress and the net ring comprises connectors for connecting the net to the net ring , and wherein the flexible net ring is designed to be resilient and elastic, so that the net ring may absorb energy by its deformation and return to its original size and shape when that influence of force of a user is removed; an upholstery ring arranged above the flexible net ring and covering the flexible net ring ; a mattress cover arranged above the safety mattress and the upholstery ring for covering thereof.
A base station for configuring a user equipment, UE , the base station comprising a processor , wherein the processor is configured to cause the base station to: configure the UE with a low complexity physical downlink control channel, LC-PDCCH, repetition level range selected from an ordered set of LC-PDCCH repetition level ranges using radio resource control, RRC, signalling; and select a LC-PDCCH repetition level from the configured LC-PDCCH repetition level range for a transport block transmission to the UE. configure the UE with a low complexity physical downlink control channel, LC-PDCCH, repetition level range selected from an ordered set of LC-PDCCH repetition level ranges using radio resource control, RRC, signalling; and select a LC-PDCCH repetition level from the configured LC-PDCCH repetition level range for a transport block transmission to the UE.
An anchoring system, for implantation of anchoring devices in at least one tissue, preferably a bone tissue (O), the system being characterized in that it comprises at least the following instruments: - a pair of anchoring devices , each anchoring device of the pair of anchoring devices comprising a body, preferably curved, extending between an anterior end configured to penetrate without any deformation in the bone tissue (O) and a posterior end configured to remain turned outward of the bone tissue (O), both of these ends defining a longitudinal axis; - at least one guide extending along a longitudinal axis between a posterior end and an anterior end and comprising at least one guiding surface , substantially along the longitudinal axis, configured to guide one of said pair of anchoring devices ; and a tubular support comprising a hollow and elongated body extending along a longitudinal axis between a first end and a second end, said hollow body being able to receive said anchoring devices and to guide them towards the bone tissue (O). - a pair of anchoring devices , each anchoring device of the pair of anchoring devices comprising a body, preferably curved, extending between an anterior end configured to penetrate without any deformation in the bone tissue (O) and a posterior end configured to remain turned outward of the bone tissue (O), both of these ends defining a longitudinal axis; - at least one guide extending along a longitudinal axis between a posterior end and an anterior end and comprising at least one guiding surface , substantially along the longitudinal axis, configured to guide one of said pair of anchoring devices ; and
Blade of a radially conveying air conveying wheel having a blade edge having an axial-side blade edge contour which extends from a blade leading edge to a blade trailing edge along a curve, wherein the blade edge contour has at least one front section (I) which is adjacent to the blade leading edge in the radial direction, a rear section (III) radially adjacent to the blade trailing edge , and a central section (II) located between the front section (I) and the rear section (III), the blade edge contour having an S-shaped curve in the central section (II), as seen in a lateral cross section, and an axial height h of the blade increasing in the direction of the blade trailing edge , characterized in that the center section (II) has a curve progression along a chord length s of the blade from a beginning of the center section s cental section min to an end of the center section s cental section max , which is determined in a normalized manner by the formula h s = tanh s − s c e n t r a l - section min + s c e n t r a l - section max 2 t ∗ h s c e n t r a l - section min + h s c e n t r a l - section max 2 + h s c e n t r a l - section min + h s c e n t r a l - section min + h s c e n t r a l - section max 2 where h corresponds to an axial height of the blade and s corresponds to a chord length of the blade extending from the blade leading edge to the blade trailing edge , where h and s each have values from 0 to 1, and and t ∈ , 0.1 ≤ s central section min ≤ s central section max , s central section min ≤ s central section max ≤ 0.8 .
A method of measuring a lipoprotein's capability to accept cholesterol comprising the steps of: bringing a lipoprotein in a sample into contact with labeled cholesterol to incorporate the labeled cholesterol into the lipoprotein, whereby the labeled cholesterol is esterified by the contact with the sample and the esterified labeled cholesterol is incorporated into the lipoprotein; bringing the lipoprotein into contact with an anti-ApoAI antibody which is immobilized on a solid phase to form a complex of the lipoprotein and the antibody; removing free labeled cholesterol which is not incorporated into the lipoprotein; and measuring the amount of the esterified labeled cholesterol incorporated into the lipoprotein of the complex. bringing a lipoprotein in a sample into contact with labeled cholesterol to incorporate the labeled cholesterol into the lipoprotein, whereby the labeled cholesterol is esterified by the contact with the sample and the esterified labeled cholesterol is incorporated into the lipoprotein; bringing the lipoprotein into contact with an anti-ApoAI antibody which is immobilized on a solid phase to form a complex of the lipoprotein and the antibody; removing free labeled cholesterol which is not incorporated into the lipoprotein; and measuring the amount of the esterified labeled cholesterol incorporated into the lipoprotein of the complex.
An electronic device for measuring the ambient temperature (T air ) of the environment of the electronic device, the electronic device comprising: - at least one integrated infrared sensor , the electronic device comprising a cover, a blinded window preventing infrared radiation from the environment of the device to directly impinge on the at least one integrated infrared sensor, the blinded window being in thermal contact with the environment of the electronic device as well as with the cover of the electronic device resulting in the blinded window being at a surface temperature (T surface ), the at least one integrated infrared sensor being adapted for sensing the temperature of the blinded window (T surface ), - at least one absolute temperature sensor for measuring a temperature of the at least one infrared sensor (T sensor ) itself, and characterized by processing means adapted to determine a temperature difference (ΔTc) between the sensed surface temperature (T surface ) of the blinded window and the temperature of the infrared sensor (Tsensor) itself and to calculate based thereon the ambient temperature (T air ). - at least one integrated infrared sensor , the electronic device comprising a cover, a blinded window preventing infrared radiation from the environment of the device to directly impinge on the at least one integrated infrared sensor, the blinded window being in thermal contact with the environment of the electronic device as well as with the cover of the electronic device resulting in the blinded window being at a surface temperature (T surface ), the at least one integrated infrared sensor being adapted for sensing the temperature of the blinded window (T surface ), - at least one absolute temperature sensor for measuring a temperature of the at least one infrared sensor (T sensor ) itself, and
Cellulose derivative particles comprising an alkoxy group having 2 or more carbons or an acyl group having 3 or more carbons, wherein the cellulose derivative particles have an average particle size of 80 nm or greater and 100 μm or less, a sphericity of 90% or greater and 100% or less, and a surface smoothness of 80% or greater and 100% or less; and a total substitution degree of the cellulose derivative is 1.0 or greater and 3 or less, wherein the average particle size, the sphericity, the surface smoothness and the total substitution degree of the cellulose derivative are measured as described in the description. wherein the cellulose derivative particles have an average particle size of 80 nm or greater and 100 μm or less, a sphericity of 90% or greater and 100% or less, and a surface smoothness of 80% or greater and 100% or less; and a total substitution degree of the cellulose derivative is 1.0 or greater and 3 or less, wherein the average particle size, the sphericity, the surface smoothness and the total substitution degree of the cellulose derivative are measured as described in the description.
A semiconductor refrigeration and heating air conditioner, comprising a body with an air outlet made in the upper end of the body and air inlets , and further comprising a semiconductor refrigeration assembly mounted in the body and located at the air outlet , the semiconductor refrigeration assembly being configured to refrigerate the air flowing through it or heat the same, metallic conductive sheets connected with the semiconductor refrigeration assembly , a water tank mounted at the lower end inside the body , a cooling water receptacle mounted at the lower end inside the body , a heat dissipation assembly mounted in the cooling water receptacle , and fan blades mounted in the body and close to the air inlets , wherein the semiconductor refrigeration assembly is connected with the heat dissipation assembly through a connection wire so as to dissipate heat through the heat dissipation assembly , the metallic conductive sheets face the air outlet , and the water tank is connected with the cooling water receptacle through a water pump assembly , wherein, to achieve a cooling effect of the heat dissipation assembly , cooling water stored in the water tank flows into the cooling water receptacle so as to cool the heat dissipation assembly , and after heat exchange, the water flows back into the water tank which is thus configured to store heat generated by the semiconductor refrigeration assembly .