mhurhangee/patent-ind-claim-en huggingface dataset:
An augmented reality (AR) display system for delivering augmented reality content to a user, comprising: an image-generating source to provide one or more frames of image data; a light modulator to transmit light associated with the one or more frames of image data; a lens assembly comprising first and second transmissive plates , the first and second transmissive plates each having a first side and a second side that is opposite to the first side, the first side being a plano side, and the second side being a shaped side, the second side of the first transmissive plate comprising a first surface sag based at least in part on a cubic function, and the second side of the second transmissive plate comprising a second surface sag based at least in part on an inverse of the cubic function such that when the first and second transmissive plates are aligned, the second transmissive plate cancels the cubic function of the first transmissive plate ; and a diffractive optical element (DOE) to receive the light associated with the one or more frames of image data and direct the light to the user's eyes, the DOE being disposed between and adjacent to the first side of the first transmissive plate and the first side of the second transmissive plate , and wherein the DOE acts as a light guide and is encoded with refractive lens information corresponding to the inverse of the cubic function that compensates for a wavefront generated by the first transmissive plate . an image-generating source to provide one or more frames of image data; a light modulator to transmit light associated with the one or more frames of image data; a lens assembly comprising first and second transmissive plates , the first and second transmissive plates each having a first side and a second side that is opposite to the first side, the first side being a plano side, and the second side being a shaped side, the second side of the first transmissive plate comprising a first surface sag based at least in part on a cubic function, and the second side of the second transmissive plate comprising a second surface sag based at least in part on an inverse of the cubic function such that when the first and second transmissive plates are aligned, the second transmissive plate cancels the cubic function of the first transmissive plate ; and a diffractive optical element (DOE) to receive the light associated with the one or more frames of image data and direct the light to the user's eyes, the DOE being disposed between and adjacent to the first side of the first transmissive plate and the first side of the second transmissive plate , and wherein the DOE acts as a light guide and is encoded with refractive lens information corresponding to the inverse of the cubic function that compensates for a wavefront generated by the first transmissive plate .
A brake system used in a fluid pressure motor including a cylinder block configured to be rotated by fluid pressure, an output shaft configured to be rotated integrally with the cylinder block, and a case configured to rotatably support the output shaft, the brake system comprising: a brake device configured to cancel brake force by supply of a pressurized working fluid and generate the brake force by discharge of the working fluid; a supply passage through which the working fluid pressurized in a working fluid pressurizing source is supplied to the brake device; a valve device configured to open and close the supply passage; a discharge passage through which the working fluid discharged from the brake device flows; and a restrictor configured to apply resistance to the working fluid flowing through the discharge passage, wherein the valve device has a first connection port connected to the upstream side of the supply passage, the first connection port to which the working fluid is led from the working fluid pressurizing source, a second connection port connected to the downstream side of the supply passage, the second connection port from which the working fluid is led to the brake device, and a valve element provided with a pressure receiving surface facing the first connection port, and the valve element permits communication between the first connection port and the second connection port when pressure of the working fluid led to the first connection port reaches predetermined pressure, and shuts off the communication between the first connection port and the second connection port when the pressure of the working fluid led to the first connection port becomes less than the predetermined pressure. a brake device configured to cancel brake force by supply of a pressurized working fluid and generate the brake force by discharge of the working fluid; a supply passage through which the working fluid pressurized in a working fluid pressurizing source is supplied to the brake device; a valve device configured to open and close the supply passage; a discharge passage through which the working fluid discharged from the brake device flows; and a restrictor configured to apply resistance to the working fluid flowing through the discharge passage, wherein the valve device has a first connection port connected to the upstream side of the supply passage, the first connection port to which the working fluid is led from the working fluid pressurizing source, a second connection port connected to the downstream side of the supply passage, the second connection port from which the working fluid is led to the brake device, and a valve element provided with a pressure receiving surface facing the first connection port, and the valve element permits communication between the first connection port and the second connection port when pressure of the working fluid led to the first connection port reaches predetermined pressure, and shuts off the communication between the first connection port and the second connection port when the pressure of the working fluid led to the first connection port becomes less than the predetermined pressure.
A method for producing enthalpy exchanger elements (E, E') comprising the steps of: a. providing an air-permeable sheet element ; b. laminating at least one side of the sheet element with a thin polymer film with water vapor transmission characteristics; c. forming the laminated sheet element into a desired shape exhibiting a three-dimensional corrugation pattern ; wherein in step a) the sheet material of the sheet element comprises a polymer, the sheet element is a fabric; in step b) the thin polymer film is a monolithic membrane wherein said monolithic membrane is a poreless membrane having a maximum elongation between 100% and 300% and exhibiting a solution-diffusion transport mechanism for individual water molecules, and the laminating step comprises at least one of bonding, preferably heat bonding, welding and gluing, of the thin polymer film to the sheet element ; wherein the forming step c) is a thermoforming step and wherein at least a first mold part having first corrugation formations defining or co-defining the predetermined corrugation pattern of the enthalpy exchanger element (E, E') to be manufactured, is provided for and used in the thermoforming step c). a. providing an air-permeable sheet element ; b. laminating at least one side of the sheet element with a thin polymer film with water vapor transmission characteristics; c. forming the laminated sheet element into a desired shape exhibiting a three-dimensional corrugation pattern ;
A system for a wearable device, for determining a gaze direction of a user wearing the wearable device, wherein the system comprises: a display device ; a primary lens disposed in front of the display device with respect to the viewing direction of the user when the user is wearing the wearable device; an illuminator configured to illuminate an eye of a user, wherein the illuminator is disposed in the primary lens , and a plurality of imaging devices disposed in the primary lens-to-detect light reflected by the eye of the user; characterised in that the illuminator comprises a plurality of optical fibers and illumination sources coupled to the ends of the optical fibers ; wherein the optical fibers are deposited in grooves in a surface of the primary lens and are numerously distributed across a front side of the primary lens; wherein any void in the grooves where the optical fibers are placed are filled with a substance to maintain a position of the optical fibers , and to minimize refraction therein; wherein the substance has a same, or similar, refraction index to the primary lens itself in order to minimize visible distortion of the lens to the user. a display device ; a primary lens disposed in front of the display device with respect to the viewing direction of the user when the user is wearing the wearable device; an illuminator configured to illuminate an eye of a user, wherein the illuminator is disposed in the primary lens , and a plurality of imaging devices disposed in the primary lens-to-detect light reflected by the eye of the user; characterised in that the illuminator comprises a plurality of optical fibers and illumination sources coupled to the ends of the optical fibers ; wherein the optical fibers are deposited in grooves in a surface of the primary lens and are numerously distributed across a front side of the primary lens; wherein any void in the grooves where the optical fibers are placed are filled with a substance to maintain a position of the optical fibers , and to minimize refraction therein; wherein the substance has a same, or similar, refraction index to the primary lens itself in order to minimize visible distortion of the lens to the user.
An antibody or an antigen-binding fragment thereof that binds to human immunodeficiency virus-1 (HIV-1) Envelope glycoprotein gp120, the antibody or antigen-binding fragment thereof comprising (i) a heavy chain variable region (VH) comprising VH complementary determining regions 1-3 (CDRs 1-3) and (ii) a light chain variable region (VL) comprising VL CDRs 1-3, wherein the VH CDRs 1-3 and VL CDRs 1-3 have the sequences set forth in SEQ ID NOs.: 137, 138, 139, 140, 141, and 142, respectively, wherein the antibody or antigen-binding fragment thereof comprises a heavy chain variable region (VH) and a light chain variable region (VL), wherein the VH and VL comprise the amino acid sequences set forth, respectively, below: SEQ ID NOs.: 182 and 223; or SEQ ID NOs.: 477 and 278; and wherein at least 70%, at least 80%, at least 85%, at least 90%, or more, N-linked glycosylation sites in the VL are sialylated. SEQ ID NOs.: 182 and 223; or SEQ ID NOs.: 477 and 278;
An automated method of particle analysis comprising: (i) focusing an electromagnetic radiation beam onto a particle-conveying medium to define a particle capture zone for capturing a candidate particle within the beam ; (ii) performing a first data acquisition procedure to test for particle capture, in which the first data acquisition procedure comprises performing a Raman response data gathering procedure sufficient to detect the presence of a predetermined spectral profile above a threshold indicative of a particle capture; (iii) if particle capture is not detected , repeating step (ii); (iv) if a particle capture is detected, acquiring particle data from the captured particle ; (v) reducing the electromagnetic radiation beam intensity to a sub-capture level to release the particle from the particle capture zone ; (vi) repeating steps (i) to (v) for successive particles in the particle-conveying medium . (i) focusing an electromagnetic radiation beam onto a particle-conveying medium to define a particle capture zone for capturing a candidate particle within the beam ; (ii) performing a first data acquisition procedure to test for particle capture, in which the first data acquisition procedure comprises performing a Raman response data gathering procedure sufficient to detect the presence of a predetermined spectral profile above a threshold indicative of a particle capture; (iii) if particle capture is not detected , repeating step (ii); (iv) if a particle capture is detected, acquiring particle data from the captured particle ; (v) reducing the electromagnetic radiation beam intensity to a sub-capture level to release the particle from the particle capture zone ; (vi) repeating steps (i) to (v) for successive particles in the particle-conveying medium .
A method for dielectrically insulating an electrical active part wherein the electrical active part is arranged in a gas-tight housing comprising an insulating medium consisting of, consisting essentially of, or comprising a compound of general formula (I): F-N(C n H m F (2n+1)-m )(C n' H m' F (2n'+1)-m' ) (I) wherein n is 1, 2, 3, 4, or 5 and m is an integer between 0 and 2n and wherein n' is 2, 3, 4, or 5 and m' is an integer between 0 and 2n'.
A robot cleaner , comprising: a water tank forming a space for storing water; a body having a water tank housing formed at a rear side thereof, the water tank housing forming a mounting space in which the water tank is mounted; a pair of spin mops rotatably mounted at a lower side of the body , and adapted to move the body by rotating and to mop a surface to be cleaned; a supply nozzle disposed at one side of the water tank housing , and when being connected to the water tank , supplying the water stored in the water tank to each of the pair of spin mops ; a discharge nozzle disposed at a position spaced apart from a center of the water tank in a first direction, and when the water tank is mounted in the water tank housing , being connected to the supply nozzle to communicate the water tank with the supply nozzle ; a separation prevention unit being spaced apart from the center of the water tank in a direction opposite the first direction, and restricting forward and backward movement of the water tank in the mounting space ; characterized in that the robot cleaner further comprises a fixing unit providing a coupling force between the water tank housing and the water tank by generating a magnetic force, and being spaced apart from the center of the water tank in the first direction; whereby the water tank is separated from the water tank housing by rotating about a point, adjacent to the separation prevention unit, in a forward direction. a water tank forming a space for storing water; a body having a water tank housing formed at a rear side thereof, the water tank housing forming a mounting space in which the water tank is mounted; a pair of spin mops rotatably mounted at a lower side of the body , and adapted to move the body by rotating and to mop a surface to be cleaned; a supply nozzle disposed at one side of the water tank housing , and when being connected to the water tank , supplying the water stored in the water tank to each of the pair of spin mops ; a discharge nozzle disposed at a position spaced apart from a center of the water tank in a first direction, and when the water tank is mounted in the water tank housing , being connected to the supply nozzle to communicate the water tank with the supply nozzle ; a separation prevention unit being spaced apart from the center of the water tank in a direction opposite the first direction, and restricting forward and backward movement of the water tank in the mounting space ; characterized in that the robot cleaner further comprises a fixing unit providing a coupling force between the water tank housing and the water tank by generating a magnetic force, and being spaced apart from the center of the water tank in the first direction; whereby the water tank is separated from the water tank housing by rotating about a point, adjacent to the separation prevention unit, in a forward direction.
A line guide device comprising a line carrier designed as an energy guiding chain for receiving and guiding lines between a first connection and a second connection which are moveable relative to each other, and a guiding device for the line carrier , wherein the line carrier has a first run connected to the first connection and a second run connected to the second connection , which runs are connected together by a direction-changing region , and the energy guiding chain has chain links, which respectively have two side plates and an outer transverse leg and an inner transverse leg in relation to the direction-changing region connecting the two side plates together, and the guiding device has at least one contact region for stationary contact of at least a part of one of the runs , wherein the line carrier has at least one magnet , arranged in the area of an outer transverse leg , and the contact region for stationary contact of at least a part of one of the runs has a ferromagnetic or ferrimagnetic material and is arranged at a side of the guiding device , which is disposed opposite the side of the line carrier facing outwardly in relation to the direction-changing region , wherein in a predetermined positional region of the line carrier in relation to the guiding device the at least one magnet cooperates with the contact region in such a way that the run having the magnet adheres to the contact region with a predetermined magnetic attraction force, characterised in that the at least one magnet is arranged in a holder which can be clipped onto the respective outer transverse leg , and has a pocket which is open to the transverse leg and which is closed outwardly and into which the magnet can be inserted, or the magnet is arranged in a pocket of an outer transverse leg , which pocket is open in the longitudinal direction of the energy guiding chain, or the magnet is arranged in a pocket which extends from the outside of a side plate through same into an outer transverse leg and into which it can be introduced from the outside.
Method for commissioning a regulation and control device (RSG1, RSG2) for field devices (FG, FG1 - FG8) for building automation, (VS1) wherein a communication connection (KV1) is created between the regulation and control device (RSG1, RSG2) and a mobile communication terminal (MG1 - MG3) of a user (B1, B2); (VS2) wherein the mobile communication terminal (MG1 - MG3) is configured to query data points (DP) of the regulation and control device (RSG1, RSG2) via the communication connection (KV1) and to review the respective state thereof, wherein a data point (DP) represents the state of a parameter of a field device (FG, FG1 - FG8); and (VS3) wherein the mobile communication terminal (MG1 - MG3) is further configured to transfer the respective state of the data points (DP) to a central point (ZS1, ZS2) via a further communication connection (KV2); wherein the installation site of the regulation and control device (RSG1, RSG2) in a building is also communicated to the mobile communication terminal (MG1 - MG3) by a corresponding position signal (POS); wherein the position signal (POS) is transmitted by the regulation and control device (RSG1, RSG2); and wherein the respective states of the data points (DP) sent to the central point (ZS1, ZS2) are transferred into a building model (BIM) for the corresponding building (GB).
A method executed by a network device implementing a session-sender to perform a test to determine whether differentiated services code point, DSCP, and explicit congestion notification, ECN, are modified in a single test session in a forward direction between the session-sender and a session-reflector, where multiple DSCP and ECN are tested using the single test session, the method comprising: determining an initial forward DSCP and ECN; generating a first test packet including the initial forward DSCP and ECN in an Internet Protocol, IP, header of the first test packet; sending the first test packet to the session-reflector in the single test session; receiving a second test packet in the single test session, the second test packet comprising a final forward DSCP and ECN that identify the DSCP and ECN received by the session-reflector for enabling comparison of the final forward DSCP and ECN to the initial forward DSCP and ECN, wherein the final forward DSCP and ECN are comprised in a payload of the second test packet; and iterating through each of the multiple DSCP and ECN until each of the multiple DSCP and ECN are tested in the single test session. determining an initial forward DSCP and ECN; generating a first test packet including the initial forward DSCP and ECN in an Internet Protocol, IP, header of the first test packet; sending the first test packet to the session-reflector in the single test session; receiving a second test packet in the single test session, the second test packet comprising a final forward DSCP and ECN that identify the DSCP and ECN received by the session-reflector for enabling comparison of the final forward DSCP and ECN to the initial forward DSCP and ECN, wherein the final forward DSCP and ECN are comprised in a payload of the second test packet; and iterating through each of the multiple DSCP and ECN until each of the multiple DSCP and ECN are tested in the single test session.
A fire extinguishing system valve , in particular a wet alarm valve, dry alarm valve or spray water valve, comprising - a housing which has a fluid inlet chamber , a fluid outlet chamber and a closing body which is movable to and fro between a blocking state and a release state, - wherein, in the release state, the fluid inlet chamber and the fluid outlet chamber communicate with each other directly in a fluid-conducting manner, and, in the blocking state, the closing body prevents the direct communication between the fluid inlet chamber and the fluid outlet chamber , wherein a bypass line which is integrated in the housing is provided, said bypass line being connected to the fluid inlet chamber in a fluid-conducting manner and extending away from there and being connected to the fluid outlet chamber in a fluid-conducting manner, - an alarm channel which, at least in the release state of the closing body , is connected to the fluid inlet and/or fluid outlet chamber in a fluid-conducting manner, wherein the integrated bypass line is connected to the fluid inlet chamber , to the fluid outlet chamber and to the alarm channel , preferably by means of an alarm channel exit , in a fluid conducting manner, characterized in that the integrated bypass line has a pressure relief exit which is connected to the surroundings and preferably has a shut-off member, in particular a safety valve or a bursting element. - a housing which has a fluid inlet chamber , a fluid outlet chamber and a closing body which is movable to and fro between a blocking state and a release state, - wherein, in the release state, the fluid inlet chamber and the fluid outlet chamber communicate with each other directly in a fluid-conducting manner, and, in the blocking state, the closing body prevents the direct communication between the fluid inlet chamber and the fluid outlet chamber , wherein a bypass line which is integrated in the housing is provided, said bypass line being connected to the fluid inlet chamber in a fluid-conducting manner and extending away from there and being connected to the fluid outlet chamber in a fluid-conducting manner, - an alarm channel which, at least in the release state of the closing body , is connected to the fluid inlet and/or fluid outlet chamber in a fluid-conducting manner,