mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacture of gypsum board having fiber face sheets, comprising the steps of: providing a first gypsum slurry having a first consistency continuously passing through a first gypsum slurry transport receptacle ; depositing a predetermined amount of said first gypsum slurry onto at least a first continuous fiber face sheet ; transporting said first continuous fiber sheet through a gypsum application station; providing a second gypsum slurry having a second consistency and depositing said second gypsum slurry onto said first fiber sheet and causing said second gypsum slurry to be essentially evenly distributed over an upwardly facing top surface of said first fiber sheet; and characterised by homogeneously mixing a hydrophobic additive into said first slurry, prior to the steps of depositing the gypsum slurries; wherein the step of homogeneously mixing a hydrophobic additive into the first gypsum slurry is performed via a fluid feed in fluid communication with said first gypsum slurry transport receptacle. providing a first gypsum slurry having a first consistency continuously passing through a first gypsum slurry transport receptacle ; depositing a predetermined amount of said first gypsum slurry onto at least a first continuous fiber face sheet ; transporting said first continuous fiber sheet through a gypsum application station; providing a second gypsum slurry having a second consistency and depositing said second gypsum slurry onto said first fiber sheet and causing said second gypsum slurry to be essentially evenly distributed over an upwardly facing top surface of said first fiber sheet; and characterised by homogeneously mixing a hydrophobic additive into said first slurry, prior to the steps of depositing the gypsum slurries; wherein the step of homogeneously mixing a hydrophobic additive into the first gypsum slurry is performed via a fluid feed in fluid communication with said first gypsum slurry transport receptacle.
An apparatus for supporting and manipulating an imaging probe in performing ultrasound-guided interventions, comprising: a remote center of motion module providing to an imaging probe at least a first rotational degree of freedom around a first axis (Ry) and a second rotational degree of freedom around a second axis (Rz); and a driver module operatively connected to the remote center of motion module , the driver module providing a linear degree of freedom for translation along an axis (Tx) aligned with a longitudinal axis of the imaging probe and further providing a third rotational degree of freedom for manipulating said imaging probe around a third axis (Rx), said driver module further comprising a rotary guide and rotary rail , said rotary rail having a geometry for allowing an additional medical instrument to be positioned adjacent the imaging probe , wherein said first (Ry), second (Rz), and third (Rx) rotation axes represent a set of three Euler orientation angles and intersect at a single point remote from the remote center of motion module ; the apparatus further comprising an imaging probe adapter attached to the driver module for securing the imaging probe ; characterised in that the imaging probe adapter is adapted to secure the imaging probe such that the rotary rail at least partially encircles the imaging probe . a remote center of motion module providing to an imaging probe at least a first rotational degree of freedom around a first axis (Ry) and a second rotational degree of freedom around a second axis (Rz); and a driver module operatively connected to the remote center of motion module , the driver module providing a linear degree of freedom for translation along an axis (Tx) aligned with a longitudinal axis of the imaging probe and further providing a third rotational degree of freedom for manipulating said imaging probe around a third axis (Rx), said driver module further comprising a rotary guide and rotary rail , said rotary rail having a geometry for allowing an additional medical instrument to be positioned adjacent the imaging probe , wherein said first (Ry), second (Rz), and third (Rx) rotation axes represent a set of three Euler orientation angles and intersect at a single point remote from the remote center of motion module ; the apparatus further comprising an imaging probe adapter attached to the driver module for securing the imaging probe ; characterised in that the imaging probe adapter is adapted to secure the imaging probe such that the rotary rail at least partially encircles the imaging probe .
Device for transporting, in particular skidding or jacking, a heavy object supported on at least one guide , comprising an actuator for effecting transport, in particular at least one hydraulic cylinder, one end of which is configured for connection to the object or a foundation and the other end is connected to a shoe configured for connection to the guide , wherein the shoe comprises at least two pins configured to be inserted into openings in the guide to provide, at least in the direction of the guide a positive connection between the shoe and the guide , characterised in that the position of at least one pin is adjustable in the direction of transport and/or in a direction opposite to the direction of transport.
Method for monitoring an operation of an elevator door arrangement , the elevator door arrangement comprising at least one door wing and an electric actuator for displacing the door wing in at least one of an opening and a closing direction during a door motion event, the method comprising a learning phase and an application phase; wherein, during the learning phase, different types of door motion events are identified and for each type of door motion event a reference motion event duration ((Δt O , Δt C , Δt R ) is learned; and wherein, during the application phase, a door arrangement operation is observed such as to detect door motion events and the different types of door motion events are distinguished upon comparison of the learned reference motion event durations ((Δt O , Δt C , Δt R ) with actual motion event durations as measured during the application phase. the elevator door arrangement comprising at least one door wing and an electric actuator for displacing the door wing in at least one of an opening and a closing direction during a door motion event, the method comprising a learning phase and an application phase; wherein, during the learning phase, different types of door motion events are identified and for each type of door motion event a reference motion event duration ((Δt O , Δt C , Δt R ) is learned; and wherein, during the application phase, a door arrangement operation is observed such as to detect door motion events and the different types of door motion events are distinguished upon comparison of the learned reference motion event durations ((Δt O , Δt C , Δt R ) with actual motion event durations as measured during the application phase.
An organic electroluminescence device comprising a structure in which a plurality of layers is laminated between an anode and a cathode formed on a substrate ; wherein the organic electroluminescence device comprises a metal oxide layer between the anode and the cathode; and characterized in that a nitrogen-containing film layer having an average thickness of not less than 1.5 nm but less than 3 nm adjacent to the metal oxide layer and disposed on an anode side. wherein the organic electroluminescence device comprises a metal oxide layer between the anode and the cathode; and characterized in that a nitrogen-containing film layer having an average thickness of not less than 1.5 nm but less than 3 nm adjacent to the metal oxide layer and disposed on an anode side.
Device for preventing jamming of the inactive leaf and active leaf of a double-leaf swing door when they are opened simultaneously together, in that the active leaf is pivoted into a slightly open position by unlocking the inactive leaf , whereby the inactive leaf is equipped with a drive bolt that can be moved vertically beyond the inactive leaf, with the aid of which the inactive leaf can be anchored to the door frame in the closed position, the inactive leaf having a transmission mechanism which transmits vertical movement of the drive bolt away from the door frame into a pivoting movement of a lever rotatably mounted on the inactive leaf in the direction of rotation of the opening movement of the inactive leaf , the lever on the active leaf protruding on a surface at the rear of its opening movement characterised in that the pivot axis of the lever is offset from the drive bolt to the vertical end face of the inactive leaf on the active leaf side.
A method for evaluating disposition of a single sign on (SSO) request, the method comprising: at a SSO disposition engine: receiving a denied, authenticated SSO request for accessing a first secure web service, the SSO request having been denied authorization to access a first service, the SSO request having been authenticated by verifying an authentication token associated with the SSO request; determining, based upon one or more criteria, where to direct the authenticated SSO request; and routing the authenticated SSO request to a second service that can provide access to the first secure web service, the routing based on the determining where to direct the SSO request. at a SSO disposition engine: receiving a denied, authenticated SSO request for accessing a first secure web service, the SSO request having been denied authorization to access a first service, the SSO request having been authenticated by verifying an authentication token associated with the SSO request; determining, based upon one or more criteria, where to direct the authenticated SSO request; and routing the authenticated SSO request to a second service that can provide access to the first secure web service, the routing based on the determining where to direct the SSO request.
A radar level gauge system for determining a topographic property of a product , the radar level gauge system comprising: a transceiver for generating, transmitting and receiving electromagnetic signals; a signal transfer element coupled to the transceiver and configured to emit an electromagnetic transmit signal from the transceiver in an emission direction ; a propagating member arranged and configured to propagate the transmit signal towards the surface of the product, and to propagate a reflection signal resulting from reflection of the transmit signal at the surface of the product back towards the transceiver, the propagating member being movably arranged in relation to the signal transfer element and configured to deflect the transmit signal from the signal transfer element to a plurality of different propagation directions, each propagation direction corresponding to a position of the propagating member in relation to the signal transfer element in a plane perpendicular to the emission direction; an elastic system coupled to the signal transfer element and to the propagating member, and arranged to define at least one property of an oscillating movement of one of the propagating member and the signal transfer element in relation to the other one of the propagating member and the signal transfer element, the oscillating movement being restricted from taking place in the emission direction ; an actuator arranged to initiate the oscillating movement; and processing circuitry coupled to the transceiver and configured to determine the topographic property based on the transmit signal and the reflection signal. a transceiver for generating, transmitting and receiving electromagnetic signals; a signal transfer element coupled to the transceiver and configured to emit an electromagnetic transmit signal from the transceiver in an emission direction ; a propagating member arranged and configured to propagate the transmit signal towards the surface of the product, and to propagate a reflection signal resulting from reflection of the transmit signal at the surface of the product back towards the transceiver, the propagating member being movably arranged in relation to the signal transfer element and configured to deflect the transmit signal from the signal transfer element to a plurality of different propagation directions, each propagation direction corresponding to a position of the propagating member in relation to the signal transfer element in a plane perpendicular to the emission direction; an elastic system coupled to the signal transfer element and to the propagating member, and arranged to define at least one property of an oscillating movement of one of the propagating member and the signal transfer element in relation to the other one of the propagating member and the signal transfer element, the oscillating movement being restricted from taking place in the emission direction ; an actuator arranged to initiate the oscillating movement; and processing circuitry coupled to the transceiver and configured to determine the topographic property based on the transmit signal and the reflection signal.
A method for producing a molded article having a thin film layer (B) having a thickness in the range of 10 μm or more and 500 μm or less formed on a surface of a porous body (A), the thin film layer (B) having at least one function selected from the functions of a primer layer, a coating film layer, and a waterproof layer, the method comprising a process (I) and a process (II) described below in this order: process (I): forming the thin film layer (B) on a surface of a precursor (a) of the porous body (A) by wet coating to obtain a preform, and process (II): expanding and molding the precursor (a) to the porous body (A). process (I): forming the thin film layer (B) on a surface of a precursor (a) of the porous body (A) by wet coating to obtain a preform, and process (II): expanding and molding the precursor (a) to the porous body (A).
A polymer which has a repeating unit including a structure represented by Formula and in addition thereto, as a repeating unit, a group consisting of a 5-membered or 6-membered monocyclic ring, a group consisting of a condensed ring in which at least two of the monocyclic rings are condensed, an ethenylene group or an ethynylene group, or a group obtained by combining these groups, in Formula , A 11 and A 12 represent -O-, -N(R N )-, or -P(R N )-, B 11 to B 18 represent -N= or -C(R M )=, at least one of which is -N=, at least one of R N or R M represents a single bond or a linking group, and the other represents a hydrogen atom or a substituent, X 11 to X 14 represent an oxygen atom or a sulfur atom, and the polymer includes no repeating unit having an aliphatic 7-membered ring structure.
An adapter (10; 10') for mounting of electrotechnical components which is formed in the form of a standardized support rail, in particular DIN rail, and which, on its upper side, has fastening means for mounting of an electrotechnical component and, on its underside, has fastening means for mounting on the front plate of an electrotechnical component , wherein the fastening means on the underside of the adapter have at least one detent hook , which is designed to latch into a corresponding detent opening on the front plate of the electrotechnical component , characterized in that the fastening means on the underside of the adapter have at least one snap-in hook , which is designed to snap into a corresponding snap-in opening on the front plate of the electrotechnical component , wherein the fastening means are suitable for fixing the adapter on the front plate of the electrotechnical component in such a way that the adapter cannot shift on the front plate .
A label for a baggage comprising a face material, an adhesive and a liner, wherein - the face material is printable, - the liner is a plastic film liner and - the liner comprises a die-cut area arranged to indicate a predetermined detachment area of the liner, wherein the die-cut area comprises die-cut edge portions along longitudinal edges of the label and a die-cut indication at the end of the predetermined detachment area arranged at edge portions of the liner transverse width direction, leaving the middle area of the liner transverse width direction free of die-cut, being characterized in that the liner is a plastic film liner comprising polyethylene terephthalate, with a tensile strength of 150-210 kN/m in machine direction and 200-270 kN/m in cross direction, when measured in accordance to ISO 1924-2. - the face material is printable, - the liner is a plastic film liner and - the liner comprises a die-cut area arranged to indicate a predetermined detachment area of the liner,
A laryngeal mask , comprising a housing ; the housing comprising a neck part and a head part extending from a first end of the neck part , the head part comprising a sealing face and an opposing face ; the sealing face and the opposing face being connected by an enclosing wall extending upwardly from the sealing face ; the sealing face comprising a peripheral seal for forming a seal around a larynx and having an opening arranged to be positioned over a laryngeal opening; and wherein the mask further comprises an airway tube positioned within the housing and extending from a second end of the neck part to the opening in the peripheral seal ; and wherein the head part comprises a resiliently deformable portion , the resiliently deformable portion being a preferentially deformable portion of the head part ; and wherein the opposing face comprises a protrusion ; characterized in that the head part further comprises a cavity , wherein the cavity comprises a fluid sump and provides a space into which a portion of the head part can be temporarily received into. the housing comprising a neck part and a head part extending from a first end of the neck part , the head part comprising a sealing face and an opposing face ; the sealing face and the opposing face being connected by an enclosing wall extending upwardly from the sealing face ; the sealing face comprising a peripheral seal for forming a seal around a larynx and having an opening arranged to be positioned over a laryngeal opening; and wherein the mask further comprises an airway tube positioned within the housing and extending from a second end of the neck part to the opening in the peripheral seal ; and wherein the head part comprises a resiliently deformable portion , the resiliently deformable portion being a preferentially deformable portion of the head part ; and wherein the opposing face comprises a protrusion ; characterized in that the head part further comprises a cavity , wherein the cavity comprises a fluid sump and provides a space into which a portion of the head part can be temporarily received into.
A GaN-based semiconductor light-emitting device comprising: (A) a first GaN-based compound semiconductor layer having n-type conductivity; (B) an active layer having a multi-quantum well structure including well layers and barrier layers for separating between the well layers; and (C) a second GaN-based compound semiconductor layer having p-type conductivity; wherein the well layers are disposed in the active layer so as to satisfy the relation d 1 < d 2 wherein d 1 is the well layer density on the first GaN-based compound semiconductor layer side in the active layer and d 2 is the well layer density on the second GaN-based compound semiconductor layer side, wherein when the total thickness of the active layer is t 0 , the well layer density in an active layer first region (AR 1 ) is d 1 , the active layer first region (AR 1 ) ranging from the first GaN-based compound semiconductor layer-side interface to the thickness of (t 0 /3) to (t 0 /2) in the active layer , and the well layer density in an active layer second region (AR 2 ) is d 2 , the active layer second region (AR2) constituting the remaining part of the active layer being not occupied by the active layer first region (AR1), the well layers are disposed in the active layer to satisfy the relation d 1 < d 2 , the thicknesses of the barrier layers decrease stepwisely at the boundary between the active layer first region (AR 1 ) and the active layer second region (AR 2 ), the thicknesses of the barrier layers do not change in the active layer second region (AR 2 ), and wherein the GaN-based compound semiconductor layers constituting the active layer are composed of an undoped GaN-based compound semiconductor, or the n-type impurity concentration of the GaN-based compound semiconductor layers constituting the active layer is less than 2 × 10 17 /cm 3 . (A) a first GaN-based compound semiconductor layer having n-type conductivity; (B) an active layer having a multi-quantum well structure including well layers and barrier layers for separating between the well layers; and (C) a second GaN-based compound semiconductor layer having p-type conductivity;
A superabsorbent polymer comprising a base resin powder comprising crosslinked polymer formed by the crosslinking polymerization of water soluble ethylenically unsaturated monomers having acid groups of which at least a part are neutralized, in the presence of an internal crosslinking agent comprising a compound represented by the following Chemical Formula 1, and inorganic material; and a surface crosslink layer on the base resin powder, formed by the additional crosslinking of the crosslinked polymer, wherein the permeability calculated by the following Calculation Formula 1 is equal to or greater than 16 mL/1 minute: in the Chemical Formula 1, R 1 is methane-1,1-diyl, propane-1,3-diyl or propane-1,2-diyl, and R 2 is hydrogen or a methyl group, Perm = 20 mL / T 1 sec * 60 sec in the Calculation Formula 1, Perm is the permeability of superabsorbent polymer, and T 1 is a time(seconds) taken for a saline solution of 20 mL to pass through swollen superabsorbent polymer under pressure of 0.3 psi (2,1 kPa), after putting 0.2 g of superabsorbent polymer in a cylinder, and pouring a saline solution (0.9wt% sodium chloride aqueous solution) so that the superabsorbent polymer is completely submerged, thus swelling the superabsorbent polymer for 30 minutes. Perm is the permeability of superabsorbent polymer, and T 1 is a time(seconds) taken for a saline solution of 20 mL to pass through swollen superabsorbent polymer under pressure of 0.3 psi (2,1 kPa), after putting 0.2 g of superabsorbent polymer in a cylinder, and pouring a saline solution (0.9wt% sodium chloride aqueous solution) so that the superabsorbent polymer is completely submerged, thus swelling the superabsorbent polymer for 30 minutes.