mhurhangee/patent-ind-claim-en huggingface dataset:
A parking device for utility vehicles, referred to in short hereinafter as trucks , comprising a framework , preferably produced from steel girders , having horizontal framework girders and having multiple parking levels arranged one over another, which each have at least two parking spaces arranged adjacent to one another for one truck in each case, the parking places are suspended as horizontally and vertically movable trays within the framework , wherein the parking places are suspended via at least two traction chains, which are guided over deflection shafts arranged in the upper-side region of the parking device and are preferably designed as double-stranded, so that each of the trays is mounted so it is vertically adjustable via an electromotive and/or hydraulic drive in each case, and the trays are each provided at the two end faces thereof with support rollers protruding in the direction of the respective adjoining horizontal framework girder , which each rest on a horizontal rail guide of the horizontal framework girder in such a way that these trays are supported in a horizontally movable manner, characterized in that the trays are suspended within the framework so that the trays each rest on multiple, preferably on three horizontally pivotable lifting forks , so that each of the lifting forks is suspended via a traction chain, which is guided via one of the least two deflection shafts arranged in the upper-side region of the parking device and preferably designed as double-stranded, so that each of the trays is mounted so it is vertically adjustable preferably with at least one hydraulic cylinder interconnected in each case and a support roller drive mounted on an adjoining horizontal framework girder is associated with the trays for the horizontal movement of the trays with a coupling interconnected.
A liquid ejecting device that performs printing by ejecting liquid onto a medium (M) within a printing region, the liquid ejecting device comprising: an ejecting unit including a first ejecting unit configured to eject the liquid onto the medium, and a second ejecting unit configured to eject a reaction liquid containing a coagulant for coagulating a component in the liquid onto the medium; a transport unit configured to transport the medium; a jam detector configured to detect a jam of the medium; and a control unit configured to control the ejecting unit and the transport unit, wherein when the jam is detected by the jam detector, the control unit stops the transportation of the medium by the transport unit, and ejects before the jam is released, within the printing region, the liquid, the reaction liquid, or the liquid and the reaction liquid from the first ejecting unit and the second ejecting unit. an ejecting unit including a first ejecting unit configured to eject the liquid onto the medium, and a second ejecting unit configured to eject a reaction liquid containing a coagulant for coagulating a component in the liquid onto the medium; a transport unit configured to transport the medium; a jam detector configured to detect a jam of the medium; and a control unit configured to control the ejecting unit and the transport unit, wherein when the jam is detected by the jam detector, the control unit stops the transportation of the medium by the transport unit, and ejects before the jam is released, within the printing region, the liquid, the reaction liquid, or the liquid and the reaction liquid from the first ejecting unit and the second ejecting unit.
A dough composition suitable for frying, comprising fruit-juice powder (FJP), wherein the FJP is a powder obtained by dehydrating a fruit juice extracted from fruits.
A rotor for an electric motor, comprising: a rotor core having a central opening ; a shaft disposed within the central opening ; at least three protrusions extending into the central opening from the rotor core , the at least three protrusions being fixed to the rotor core , and the at least three protrusions contacting or being within 0.001" (0.0254mm) of the shaft without being rotationally fixed thereto; a portion of the central opening forming a circumferential gap disposed between the rotor core and the shaft and between each of the at least three protrusions ; and a resin disposed within the circumferential gap , characterized in that the circumferential gap comprises a first width and a second width between the rotor core and the shaft , the second width being at least twice the first width, and the first width extending circumferentially around the shaft at least three times a circumferential length of the second width. a rotor core having a central opening ; a shaft disposed within the central opening ; at least three protrusions extending into the central opening from the rotor core , the at least three protrusions being fixed to the rotor core , and the at least three protrusions contacting or being within 0.001" (0.0254mm) of the shaft without being rotationally fixed thereto; a portion of the central opening forming a circumferential gap disposed between the rotor core and the shaft and between each of the at least three protrusions ; and a resin disposed within the circumferential gap , characterized in that the circumferential gap comprises a first width and a second width between the rotor core and the shaft , the second width being at least twice the first width, and the first width extending circumferentially around the shaft at least three times a circumferential length of the second width.
A method of manufacturing an electrochromic device comprising an electrochromic stack between a first and a second transparent electronically conductive layer configured to deliver an electrical potential difference over surfaces of the electrochromic stack and thereby cause optical switching of the electrochromic device, the method of manufacturing comprising: depositing a sacrificial coating over a substrate, the substrate comprising the first transparent electronically conductive layer; and prior to coating a glass substrate with the second transparent electronically conductive layer of the electrochromic stack, removing the sacrificial coating by peeling the sacrificial coating from the substrate. depositing a sacrificial coating over a substrate, the substrate comprising the first transparent electronically conductive layer; and prior to coating a glass substrate with the second transparent electronically conductive layer of the electrochromic stack, removing the sacrificial coating by peeling the sacrificial coating from the substrate.
A computer implemented method of estimating a set of photogrammetric parameters, surface shape and material index of refraction represented in a reflectance image having one or more known illumination directions and a single known viewing direction, characterised in that the method comprises: minimising a cost function defining a difference between the reflectance image and a reflectance model, the reflectance model using information related to surface shape, the material index of refraction and the set of photogrammetric parameters, wherein minimising the cost function comprises updating the surface shape, updating the material index of refraction, and updating the set of photogrammetric parameters, wherein R l ( u,λ ) represents the reflectance image at a location u, for a wavelength λ , and for an image number /, f l ( u,λ ) represents the reflectance model the surface shape is represented by surface gradients p ( u ) and q(u), the material index of refraction is represented by n ( u,λ ), the photogrammetric parameters are represented by Ω( u ) , and the cost function is defined as C = ∑ l = 1 M ∫ I ∫ W R l u λ − f l u λ 2 dudλ + α ∫ I ∂ p u ∂ y − ∂ q u ∂ x 2 du + β ∫ I ∫ W ∂ n u λ ∂ λ 2 dudλ + γ ∫ I ∂ Ω u ∂ x 2 + ∂ Ω u ∂ y 2 du where M is a number of images, I is an image spatial domain, W is a wavelength range and α, β and γ are weights that control a respective contribution to the cost function. minimising a cost function defining a difference between the reflectance image and a reflectance model, the reflectance model using information related to surface shape, the material index of refraction and the set of photogrammetric parameters, wherein minimising the cost function comprises updating the surface shape, updating the material index of refraction, and updating the set of photogrammetric parameters, wherein R l ( u,λ ) represents the reflectance image at a location u, for a wavelength λ , and for an image number /, f l ( u,λ ) represents the reflectance model the surface shape is represented by surface gradients p ( u ) and q(u), the material index of refraction is represented by n ( u,λ ), the photogrammetric parameters are represented by Ω( u ) , and the cost function is defined as C = ∑ l = 1 M ∫ I ∫ W R l u λ − f l u λ 2 dudλ + α ∫ I ∂ p u ∂ y − ∂ q u ∂ x 2 du + β ∫ I ∫ W ∂ n u λ ∂ λ 2 dudλ + γ ∫ I ∂ Ω u ∂ x 2 + ∂ Ω u ∂ y 2 du where M is a number of images, I is an image spatial domain, W is a wavelength range and α, β and γ are weights that control a respective contribution to the cost function.
A method of manufacturing a semiconductor-on-insulator structure, comprising the following steps: - providing a donor substrate comprising an embrittlement zone delimiting a layer to be transferred, - providing a receiver substrate , - bonding the donor substrate to the receiver substrate , the layer to be transferred being located on the bonding interface side by initiating a bonding wave from a first region of the periphery of said interface and propagating said wave to a second region of the periphery of said interface opposite to the first region , the propagation speed of the bonding wave being lower in said central portion than in said peripheral portion , - detachment of the donor substrate along the embrittlement zone in order to transfer the layer to be transferred onto the receiver substrate , said method being characterized in that the bonding is carried out under controlled conditions to increase the difference in propagation speed of said bonding wave between the peripheral portion and the central portion of the bonding interface . - providing a donor substrate comprising an embrittlement zone delimiting a layer to be transferred, - providing a receiver substrate , - bonding the donor substrate to the receiver substrate , the layer to be transferred being located on the bonding interface side by initiating a bonding wave from a first region of the periphery of said interface and propagating said wave to a second region of the periphery of said interface opposite to the first region , the propagation speed of the bonding wave being lower in said central portion than in said peripheral portion , - detachment of the donor substrate along the embrittlement zone in order to transfer the layer to be transferred onto the receiver substrate ,
A cosmetic composition containing: (a) from 3 to 10% by weight of at least one bicarbonate salt, (b) xanthan gum, (c) at least one optionally carboxymethylated glucose homopolymer, and (d) from 40 to 95% by weight of water, the above percentages being expressed relative to the total weight of the composition. (a) from 3 to 10% by weight of at least one bicarbonate salt, (b) xanthan gum, (c) at least one optionally carboxymethylated glucose homopolymer, and (d) from 40 to 95% by weight of water,
A quantum key distribution method for distributing a secret key over a quantum communication channel between a transmitter and a receiver , the method comprising the steps of: - synchronizing (S2100, S5100, S7100) a clock between the transmitter and the receiver , - distributing (S2200) the secret key from the transmitter to the receiver , characterized in that the synchronizing step (S2100, S5100, S7100) comprises: a first transmitting step (S2120) for transmitting a N-th bit of the clock from the transmitter to the receiver , a second transmitting step (S2130) for transmitting acknowledgement of reception of the N-th bit from the receiver to the transmitter , a first checking step (S2140) for checking if the N-th bit is a most significant bit of the clock, and an incrementing step (S2150) for incrementing the value of N if the first checking step (S2140) indicates that the N-th bit is not the most significant bit of the clock. - synchronizing (S2100, S5100, S7100) a clock between the transmitter and the receiver , - distributing (S2200) the secret key from the transmitter to the receiver , a first transmitting step (S2120) for transmitting a N-th bit of the clock from the transmitter to the receiver , a second transmitting step (S2130) for transmitting acknowledgement of reception of the N-th bit from the receiver to the transmitter , a first checking step (S2140) for checking if the N-th bit is a most significant bit of the clock, and an incrementing step (S2150) for incrementing the value of N if the first checking step (S2140) indicates that the N-th bit is not the most significant bit of the clock.
Hand-held power tool comprising a housing with a handle , and comprising a drive motor which is arranged in the housing , and an interface for producing a mechanical and/or electrical connection of the hand-held power tool to a rechargeable battery pack ; wherein the interface has a basic element for the electrical and/or mechanical connection of the interface to the hand-held power tool , and has a separate contact carrier ; characterized in that the contact carrier has at least three contact elements for making electrical and/or mechanical contact with at least one corresponding mating contact element on the rechargeable battery pack ; wherein the basic element is fixedly integrated in the housing of the hand-held power tool , and the contact carrier is arranged releasably on the basic element via at least one contact means , and wherein the basic element has at least one opening for receiving the contact means ; and wherein a second electrical connecting element for making electrical contact with the hand-held power tool is integrated in the at least one opening in the basic element , wherein the contact carrier is arranged releasably on the basic element in such a manner that the contact carrier can be exchanged by a user.
A multi-way switch , comprising: six T ports and four P ports, the six T ports comprising two first T ports, and each of the two first T ports being coupled with all of the four P ports; the two first T ports supporting only a transmission function; and the multi-way switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency dual-transmit mode, and the antenna system comprising four antennas corresponding to the four P ports, each of the four P ports being configured to be coupled with a corresponding antenna of the four antennas; characterized in that the six T ports further comprise four second T ports; each of the four second T ports is individually coupled with only one corresponding P port of the four P ports, and T ports at the same frequency band among the four second T ports are coupled with different P ports; and the second T ports support only a reception function. six T ports and four P ports, the six T ports comprising two first T ports, and each of the two first T ports being coupled with all of the four P ports; the two first T ports supporting only a transmission function; and the multi-way switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency dual-transmit mode, and the antenna system comprising four antennas corresponding to the four P ports, each of the four P ports being configured to be coupled with a corresponding antenna of the four antennas; characterized in that the six T ports further comprise four second T ports; each of the four second T ports is individually coupled with only one corresponding P port of the four P ports, and T ports at the same frequency band among the four second T ports are coupled with different P ports; and the second T ports support only a reception function.
Distribution homogenizing device for homogenizing the distribution of the refrigerant (FR) inside tubes of a heat exchanger , the homogenizing device comprising at least one pipe provided with N orifices of respective bore section (D1, D2, D3, ..., DN) for the passage of the refrigerant (FR), where N ≥ 2, these including at least one orifice of a first type having a first bore section (D1) and at least one orifice of a second type having a second bore section (D2), such that the first bore section (D1) is smaller than the second bore section (D2), and that the orifices are distributed in groups (G1, G2, G3), a group (G1, G2, G3) of orifices being formed by at least two orifices adjacent to one another and having identical bore sections (D1, D2, D3, ..., DN) to one another, in which, with the pipe comprising at least one window for admitting the refrigerant (FR), for any orifice of the first type being positioned at a first distance (W1) from the window , any orifice of the second type being positioned at a second distance (W2) away from the window , the first distance (W1) is smaller than a second distance (W2), in which the orifices are distributed in at least one first group (G1) of orifices of the first type , having the first bore section (D1), and a second group (G2) of orifices of the second type having the second bore section (D2), characterized in that the orifices of the first type of the first group (G1) extend over at least half the length (L) of the pipe considered between a first end part and a second end part of the pipe .
An article of apparel comprising: a dynamic padding system , the dynamic padding system including a pad , a spool , and a filament ; wherein the filament is wound around the spool and extends through the pad; wherein the spool is configured to reversibly wind the filament from a first length within the pad to a second length within the pad; wherein the dynamic padding system is configured to reversibly change from a first state to a second state, the first state being associated with the first length of filament within the pad and the second state being associated with the second length of filament within the pad; the first state being associated with a first stiffness, the second state being associate with a second stiffness, the second stiffness being different from the first stiffness.
A patterning process to form a metal film pattern on a coated film having an exposure pattern formed thereon, comprising the steps of: coating a substrate to be processed with a first resist material containing a thermosetting compound having a hydroxy group and/or a carboxy group each protected by an acid-labile group, an acid generator, and a sensitizer, followed by baking treatment to form a first resist film being insoluble to an organic solvent; irradiating the first resist film with a high energy beam from a light source of an extreme ultraviolet ray with a wavelength of 3 to 15 nm or an electron beam to perform pattern exposure to deprotect the hydroxy group and/or the carboxy group in a pattern exposed portion of the first resist film; coating the first resist film subjected to the pattern exposure with a second resist material containing a component (A) of at least one element selected from the group consisting of a metal compound as well as a hydrolysate, a condensate, and a hydrolysis condensate of the metal compound, followed by baking treatment to form a second resist film and to form a crosslinked portion in which the component (A) and the deprotected hydroxy group and/or the deprotected carboxy group are crosslinked on the pattern exposed portion; and developing the second resist film with a developer to give a metal film pattern composed of the crosslinked portion. coating a substrate to be processed with a first resist material containing a thermosetting compound having a hydroxy group and/or a carboxy group each protected by an acid-labile group, an acid generator, and a sensitizer, followed by baking treatment to form a first resist film being insoluble to an organic solvent; irradiating the first resist film with a high energy beam from a light source of an extreme ultraviolet ray with a wavelength of 3 to 15 nm or an electron beam to perform pattern exposure to deprotect the hydroxy group and/or the carboxy group in a pattern exposed portion of the first resist film; coating the first resist film subjected to the pattern exposure with a second resist material containing a component (A) of at least one element selected from the group consisting of a metal compound as well as a hydrolysate, a condensate, and a hydrolysis condensate of the metal compound, followed by baking treatment to form a second resist film and to form a crosslinked portion in which the component (A) and the deprotected hydroxy group and/or the deprotected carboxy group are crosslinked on the pattern exposed portion; and developing the second resist film with a developer to give a metal film pattern composed of the crosslinked portion.
Method for cutting closures, comprising the steps of: - feeding a spindle which brings a closure to a cutting device with one or more horizontal blades and at least one vertical or oblique blade , the spindle being fed several times to the cutting device carrying a different closure each time, the spindle comprising a soft portion made of a softer material than the blades; and - rotating the spindle around a spindle axis (Y) to move the closure on the cutting device so that the blades (4; 5) penetrate into the closure and sink into said soft portion of the spindle; characterized in that a rotation of the spindle is coordinated with a feeding of the spindle so that the vertical or oblique blade , every time the spindle is fed to the cutting device , encounters always a same vertical or oblique area of said soft portion . - feeding a spindle which brings a closure to a cutting device with one or more horizontal blades and at least one vertical or oblique blade , the spindle being fed several times to the cutting device carrying a different closure each time, the spindle comprising a soft portion made of a softer material than the blades; and - rotating the spindle around a spindle axis (Y) to move the closure on the cutting device so that the blades (4; 5) penetrate into the closure and sink into said soft portion of the spindle;