mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a sub-micron 3D optical material structure on a diffractive optics element without planarization, the method comprising: A) depositing a material stack to be patterned on a substrate ; B) depositing and patterning a mask material on a portion of the material stack; C) etching the material stack down one level; D) trimming a side portion of the mask material ; E) etching the material stack down one more level; F) repeating D and E 'N' times; G) stripping the mask material from the material stack; and H) skipping the trimming of the sides of the mask material for one or more etching operations. A) depositing a material stack to be patterned on a substrate ; B) depositing and patterning a mask material on a portion of the material stack; C) etching the material stack down one level; D) trimming a side portion of the mask material ; E) etching the material stack down one more level; F) repeating D and E 'N' times; G) stripping the mask material from the material stack; and H) skipping the trimming of the sides of the mask material for one or more etching operations.
A hair holder comprising a tubular body which includes a sheet and into which a bundle of hair can be inserted from an opening at one of opposite ends of the tubular body toward an opening at the other end, wherein the tubular body is capable of being rolled up, and has a first winding and tightening tab (8A1) on one of opposite side edges (S1) of the tubular body and a second winding and tightening tab (8A2) on the other side edge (S2) of the tubular body, the first winding and tightening tab is disposed only in an end portion region on the opening side at the one end, characterized in that the second winding and tightening tab is disposed only in an end portion region on the opening side at the other end.
An ink comprising: a polyoxyalkylene alkyl ether represented by General Formula below; an alkanediol; and a silicone-based compound in an amount of 0.2% by mass or more but 1.0% by mass or less relative to a mass of the ink, wherein a mass ratio of an amount of the polyoxyalkylene alkyl ether represented by the General Formula to an amount of the silicone-based compound is 2.0 or more but 4.0 or less: where R 1 , R 2 , R 3 , and R 4 each independently represent a hydrogen atom or an alkyl group having 1 or more but 5 or less carbon atoms, and n represents an integer of 4 or more but 10 or less. a polyoxyalkylene alkyl ether represented by General Formula below; an alkanediol; and a silicone-based compound in an amount of 0.2% by mass or more but 1.0% by mass or less relative to a mass of the ink, wherein a mass ratio of an amount of the polyoxyalkylene alkyl ether represented by the General Formula to an amount of the silicone-based compound is 2.0 or more but 4.0 or less: where R 1 , R 2 , R 3 , and R 4 each independently represent a hydrogen atom or an alkyl group having 1 or more but 5 or less carbon atoms, and n represents an integer of 4 or more but 10 or less.
An axial gap motor having: a rotor , comprising: a disk-shaped supporting member ; and a plurality of permanent magnet segments mounted on the supporting member , the plurality of permanent magnet segments spaced in a circumferential direction at an equal pitch angle between a hub section and an outer peripheral section of the disk-shaped supporting member , the rotor being fixed to an output shaft so as to rotate together with the output shaft; and a stator arranged, on at least one side of the rotor , opposite to the rotor , with a predetermined gap from the rotor , wherein a plurality of field winding slots for generating a rotating magnetic field is spaced on an outer peripheral section of the stator at an equal pitch angle in a circumferential direction, and wherein a notched part radially extending is provided between a mounting hole of the supporting member , in which each of a plurality of permanent magnet segments is fitted, and an outer peripheral edge of the supporting member , characterized in that each of the notched parts is filled with non-conductive material. a disk-shaped supporting member ; and a plurality of permanent magnet segments mounted on the supporting member , the plurality of permanent magnet segments spaced in a circumferential direction at an equal pitch angle between a hub section and an outer peripheral section of the disk-shaped supporting member , the rotor being fixed to an output shaft so as to rotate together with the output shaft; and a stator arranged, on at least one side of the rotor , opposite to the rotor , with a predetermined gap from the rotor , wherein a plurality of field winding slots for generating a rotating magnetic field is spaced on an outer peripheral section of the stator at an equal pitch angle in a circumferential direction, and wherein a notched part radially extending is provided between a mounting hole of the supporting member , in which each of a plurality of permanent magnet segments is fitted, and an outer peripheral edge of the supporting member , characterized in that each of the notched parts is filled with non-conductive material.
A water-glycol hydraulic fluid composition comprising an alkanolamine compound according to the general formula , wherein the water-glycol hydraulic fluid composition comprises 20-60% by mass water, 20-60% by mass glycol, 0.6-1.2% by mass fatty acid lubricant, and 0.01-0.06% by mass alkaline hydroxide compound selected from potassium hydroxide and/or sodium hydroxide, and has an alkali reserve of 10-25 as measured according to JIS K2234-1994, wherein R 1 and R 2 are hydrocarbon groups having from 1 to 8 carbon atoms, and R 3 is a hydrocarbon group having 2 or more carbon atoms, wherein the alkanolamine compound according to general formula (I) is N,N-dibutylaminoethanol. wherein R 1 and R 2 are hydrocarbon groups having from 1 to 8 carbon atoms, and R 3 is a hydrocarbon group having 2 or more carbon atoms, wherein the alkanolamine compound according to general formula (I) is N,N-dibutylaminoethanol.
A peptide consisting of the amino acid sequence of SEQ ID NO: 5, wherein the peptide forms a complex with a Major Histocompatibility Complex (MHC) molecule.
Electronic shaft dimensioning system being a system for electronically recording the dimensions of a lift shaft comprising: - two pieces of frame adapted to be placed in consecutive floors, each frame comprising two telescopic bars with supports , each of said telescopic bars being adapted to be placed across the width of any floor door opening; - a guide engaged with the at least two supports , wherein the guide is adapted to be temporarily engaged with three supports of two separate pieces of frame during the transition from the one floor to the next floor, so as to avoid any deviation from theoretical vertical axis; - a measuring apparatus , as 3D scanning or scannerless measurement apparatus, such as CMM or Laser scanner or time of flight scannerless apparatus, which is placed on said guide , wherein the guide coupled with the measuring apparatus is adapted to slide through the supports from the one floor to the next floor; And a processing system adapted to receive the data from the measuring apparatus measured at successive floors in order to obtain data points of the whole shaft in the 3D space. - two pieces of frame adapted to be placed in consecutive floors, each frame comprising two telescopic bars with supports , each of said telescopic bars being adapted to be placed across the width of any floor door opening; - a guide engaged with the at least two supports , wherein the guide is adapted to be temporarily engaged with three supports of two separate pieces of frame during the transition from the one floor to the next floor, so as to avoid any deviation from theoretical vertical axis; - a measuring apparatus , as 3D scanning or scannerless measurement apparatus, such as CMM or Laser scanner or time of flight scannerless apparatus, which is placed on said guide , wherein the guide coupled with the measuring apparatus is adapted to slide through the supports from the one floor to the next floor; And a processing system adapted to receive the data from the measuring apparatus measured at successive floors in order to obtain data points of the whole shaft in the 3D space.
A cutter set mounting structure of a food processor, comprising: a container bottom , wherein the container bottom is provided with a mounting hole ; and a cutter holder , mounted at the mounting hole for mounting a cutter of the food processor; wherein the cutter holder is provided with an anti-disengagement part , the container bottom is provided with an anti-disengagement matching part , and the anti-disengagement matching part matches with the anti-disengagement matching part to limit the cutter holder from falling out of the mounting hole under the action of gravity; wherein the container bottom comprises: a base , wherein the base is provided with the mounting hole ; and a locking component , mounted on the base and matching with the cutter holder and adapted to reciprocate relative to the base between a cutter removing position and a cutter locking position, and to lock the cutter holder to fix the cutter holder when moving to the cutter locking position, and to unlock the cutter holder when moving to the cutter removing position; wherein the base and/or the locking component are provided with the anti-disengagement matching part ; characterised by a restraining mechanism provided on the base and matching with the locking component for locking the locking component in the cutter locking position to limit a movement of the locking component to the cutter removing position. wherein the container bottom comprises: a base , wherein the base is provided with the mounting hole ; and a locking component , mounted on the base and matching with the cutter holder and adapted to reciprocate relative to the base between a cutter removing position and a cutter locking position, and to lock the cutter holder to fix the cutter holder when moving to the cutter locking position, and to unlock the cutter holder when moving to the cutter removing position; wherein the base and/or the locking component are provided with the anti-disengagement matching part ; characterised by a restraining mechanism provided on the base and matching with the locking component for locking the locking component in the cutter locking position to limit a movement of the locking component to the cutter removing position.
A method for determining a protection level of a position estimate using only a single epoch of global navigation satellite system (GNSS) measurements, the method comprising: specifying (S210), in advance, a prior probability density P ( x ) of a state x ; specifying (S220), in advance, a system model h ( x ) that relates the state x to observables z of the measurements; quantifying (S230), during operation, quality metrics q associated with the measurements; specifying (S240), in advance, a non-Gaussian residual error probability density model f ( r i | θ, q i ) for each observable z i , where r i is a residual error associated with the observable z i and r = z − h x , and fitting model parameters θ determined off-line a priori; defining (S250), during operation, a posterior probability density P ( x | z, q, θ ), where P x θ z q ∝ P x ∏ i f z i − h i x θ q i ; and í is a natural number being an index to the observables z , estimating (S260), during operation, the state x ; and computing (S260), during operation, the protection level by integrating the posterior probability density P ( x | z, q, θ ) over the state x. specifying (S210), in advance, a prior probability density P ( x ) of a state x ; specifying (S220), in advance, a system model h ( x ) that relates the state x to observables z of the measurements; quantifying (S230), during operation, quality metrics q associated with the measurements; specifying (S240), in advance, a non-Gaussian residual error probability density model f ( r i | θ, q i ) for each observable z i , where r i is a residual error associated with the observable z i and r = z − h x , and fitting model parameters θ determined off-line a priori; defining (S250), during operation, a posterior probability density P ( x | z, q, θ ), where P x θ z q ∝ P x ∏ i f z i − h i x θ q i ; and í is a natural number being an index to the observables z , estimating (S260), during operation, the state x ; and computing (S260), during operation, the protection level by integrating the posterior probability density P ( x | z, q, θ ) over the state x.
Filling system for filling containers with a fluid filling material, comprising at least one filling material tank providing the filling material or a product distribution pipe , as well as at least one filling element (1.1) for the controlled distribution of the filling material into the container arranged in the sealing position at the filling element (1.1) in a filling phase, wherein the filling element (1.1) comprises, in a filling element housing , a fluid channel through which the fluid filling material can flow, in which a fluid valve is provided, the valve body (9.1) of which can be shifted in a controlled manner along a filling element axis (FA) in order to open and/or close the fluid valve , and is formed on a gas pipe which is arranged axially aligned with the filling element axis (FA) and acts as a valve tappet, wherein, with the inclusion of the gas pipe , at least one flow path is formed for a fluid and/or gaseous medium, which during the filling phase is in connection with an interior of the container which is to be filled, wherein at least one antenna of a radar fill level measuring device is provided in the flow path for determining the fill level of the fluid filling material filled in the container , characterised in that the antenna is provided in the region of the lower open end (13.1) inside the gas pipe . wherein at least one antenna of a radar fill level measuring device is provided in the flow path for determining the fill level of the fluid filling material filled in the container , characterised in that the antenna is provided in the region of the lower open end (13.1) inside the gas pipe .
A safety hammer for breaking glass, comprising - a housing comprising at least two shell parts; - a hammer head having at least one end for breaking the glass, wherein the hammer head is at least partly enclosed by the shell parts such that the at least one end of the hammer head extends outside the housing; characterised in that the hammer head is arranged for cooperation with the shell parts for fastening the shell parts via the hammer head. - a housing comprising at least two shell parts; - a hammer head having at least one end for breaking the glass, wherein the hammer head is at least partly enclosed by the shell parts such that the at least one end of the hammer head extends outside the housing; characterised in that the hammer head is arranged for cooperation with the shell parts for fastening the shell parts via the hammer head.
Mobile container-tank module for liquid gas as fuel for drive units or energy-generation units as consumers, having at least one process device provided in the container-tank module for vaporizing the liquid gas, wherein the container-tank module has a connection for an external energy source or an integrated energy source, for vaporizing liquid gas, wherein at least one connection is provided for delivering processed gas to the drive units and energy-generation units, wherein the integrated process devices are arranged in the container-tank module in a protected manner, wherein the process devices are provided in housings and /or boxes within the dimensions of the container-tank module, wherein all the process devices for processing the liquid gas for direct fuel delivery to the drive units or energy-generation units, in particular for vaporizing the liquid gas, for heating the gas, for compressing, for adjusting the pressure of and for feeding the gas, are provided as process devices integrated within the dimensions of the container-tank module , and the external connections of gas-carrying lines are provided enclosed in a box at an end portal of the container-tank module , characterized in that the housings are provided within the dimensions of the container-tank module beneath its cryogenic tank , and at least one box for receiving electrical and electronic components, and plug-type connections to external connections is provided at the opposite end portal .
A computer-implemented method for providing distributed virtualized desktops, the method performed at a first computer including at least one processor, the method comprising: receiving user credential data from a user; determining based on the received user credential data if the first computer is a home system of the user and if the first computer is not the home system of the user; transmitting, to a management server , the user credential data and device identification data of the first computer ; receiving, from the management server , an identification of the home system assigned to the user identified based on the user credential data, the home system comprising a second computer executing at least one virtual machine including a desktop ; establishing communication between the first computer and the second computer using the received identification of the home system; and receiving display data from the second computer , the display data configured to generate a representation of at least a portion of the desktop on the first computer , such that the user is able to access the desktop while the at least one virtual machine on the second computer is executing; wherein the first computer and the second computer are client computers directly accessible to the user. receiving user credential data from a user; determining based on the received user credential data if the first computer is a home system of the user and if the first computer is not the home system of the user; transmitting, to a management server , the user credential data and device identification data of the first computer ; receiving, from the management server , an identification of the home system assigned to the user identified based on the user credential data, the home system comprising a second computer executing at least one virtual machine including a desktop ; establishing communication between the first computer and the second computer using the received identification of the home system; and receiving display data from the second computer , the display data configured to generate a representation of at least a portion of the desktop on the first computer , such that the user is able to access the desktop while the at least one virtual machine on the second computer is executing; wherein the first computer and the second computer are client computers directly accessible to the user.
A reception device characterised by comprising: a receiving unit configured to receive a metafile having meta information used to acquire, from communication network or broadcast, a predetermined number of audio streams including a plurality of groups of encoded data, the metafile including attribute information that indicates each attribute of the encoded data of the plurality of groups, and stream correspondence relation information indicating in which audio stream the encoded data of the plurality of groups is included respectively; and a processing unit configured to acquire selection information from a user; decode an audio stream including encoded data of a group having an attribute compatible with speaker configuration of a speaker system and the selection information on the basis of the attribute information and stream correspondence relation information. a receiving unit configured to receive a metafile having meta information used to acquire, from communication network or broadcast, a predetermined number of audio streams including a plurality of groups of encoded data, the metafile including attribute information that indicates each attribute of the encoded data of the plurality of groups, and stream correspondence relation information indicating in which audio stream the encoded data of the plurality of groups is included respectively; and a processing unit configured to acquire selection information from a user; decode an audio stream including encoded data of a group having an attribute compatible with speaker configuration of a speaker system and the selection information on the basis of the attribute information and stream correspondence relation information. acquire selection information from a user; decode an audio stream including encoded data of a group having an attribute compatible with speaker configuration of a speaker system and the selection information on the basis of the attribute information and stream correspondence relation information.
A packet processing method, wherein the method comprises: receiving, by a network node of an access network, a first packet sent by a user terminal, wherein the first packet is used to request an Internet Protocol, IP, address from a Dynamic Host Configuration Protocol, DHCP, server; obtaining, by the network node, a second packet, wherein the second packet comprises the first packet, information about a port, and a Media Access Control, MAC, address of the user terminal; and sending, by the network node in the second packet, the first packet, the information about the port, and the MAC address of the user terminal to a controller, wherein the port is a port through which the network node receives the first packet and wherein the information about the port, and the MAC address of the user terminal are comprised outside of the first packet, wherein the first packet is a Dynamic Host Configuration Protocol discover, DHCP Discover, packet; or the first packet is a Dynamic Host Configuration Protocol request, DHCP Request, packet; or the first packet is a router solicitation, RS, message. receiving, by a network node of an access network, a first packet sent by a user terminal, wherein the first packet is used to request an Internet Protocol, IP, address from a Dynamic Host Configuration Protocol, DHCP, server; obtaining, by the network node, a second packet, wherein the second packet comprises the first packet, information about a port, and a Media Access Control, MAC, address of the user terminal; and sending, by the network node in the second packet, the first packet, the information about the port, and the MAC address of the user terminal to a controller, wherein the port is a port through which the network node receives the first packet and wherein the information about the port, and the MAC address of the user terminal are comprised outside of the first packet, wherein the first packet is a Dynamic Host Configuration Protocol discover, DHCP Discover, packet; or the first packet is a Dynamic Host Configuration Protocol request, DHCP Request, packet; or the first packet is a router solicitation, RS, message.