mhurhangee/ep-ind-claims huggingface dataset:
A press machine vertically moving a ram by turning a threaded member, wherein: the ram has a bearing holder that holds a bearing (65, 67) whose outer ring (65O, 67O) is solidly engaged with the bearing holder and whose inner ring (65I, 67I) is solidly fitted to a lower end part of the threaded member; a fine clearance is formed between a lower face of the threaded member and a bottom face of the bearing holder so that the threaded member and bearing holder are allowed to rotate relative to each other; and the fine clearance is set so that, when load is applied to the ram to cause a relative slight movement in a vertical direction between the inner and outer rings of the bearing (65, 67), the lower face of the threaded member and the bottom face of the bearing holder come into contact with each other, characterized in that: a lower part of the threaded member is provided with an upper flange to restrict a relative vertical movement of the inner ring of the bearing; an upper side of the upper flange is solidly provided with a pulley to rotate the threaded member; the bearing holder is solidly provided with a motor support bracket to support a motor having a drive pulley; and a belt is stretched around the drive pulley and the pulley. the ram has a bearing holder that holds a bearing (65, 67) whose outer ring (65O, 67O) is solidly engaged with the bearing holder and whose inner ring (65I, 67I) is solidly fitted to a lower end part of the threaded member; a fine clearance is formed between a lower face of the threaded member and a bottom face of the bearing holder so that the threaded member and bearing holder are allowed to rotate relative to each other; and the fine clearance is set so that, when load is applied to the ram to cause a relative slight movement in a vertical direction between the inner and outer rings of the bearing (65, 67), the lower face of the threaded member and the bottom face of the bearing holder come into contact with each other, characterized in that: a lower part of the threaded member is provided with an upper flange to restrict a relative vertical movement of the inner ring of the bearing; an upper side of the upper flange is solidly provided with a pulley to rotate the threaded member; the bearing holder is solidly provided with a motor support bracket to support a motor having a drive pulley; and a belt is stretched around the drive pulley and the pulley.
A latch for a swinging barrier, the latch comprising: first and second units (10, 16) adapted for mounting respectively on the swinging barrier and an adjacent structure; a latch member (24, 24", 24"') having an axis and opposite ends spaced along the axis, a latch mounting arm (22, 22") extending from the latch member (24, 24", 24"') and engaging each of the opposite ends of the latch member(24, 24", 24"'), the latch mounting arm (22, 22') being coupled to one of the units; a latch receiver (12, 12") coupled to the other unit; the latch receiver (12, 12") and the latch member (24, 24", 24"') being magnetically attracted such that, when the units (10, 16) are brought together, a magnetic force from the magnetic attraction pulls the latch member (24, 24", 24"')towards the latch receiver in a direction transverse to the latch member axis; characterised in that the latch receiver <12, 12") having a latch shoulder (14, 146) and the latch member being adapted to engage behind the latch shoulder (14, 146) under movement of the latch member by said magnetic force. first and second units (10, 16) adapted for mounting respectively on the swinging barrier and an adjacent structure; a latch member (24, 24", 24"') having an axis and opposite ends spaced along the axis, a latch mounting arm (22, 22") extending from the latch member (24, 24", 24"') and engaging each of the opposite ends of the latch member(24, 24", 24"'), the latch mounting arm (22, 22') being coupled to one of the units; a latch receiver (12, 12") coupled to the other unit; the latch receiver (12, 12") and the latch member (24, 24", 24"') being magnetically attracted such that, when the units (10, 16) are brought together, a magnetic force from the magnetic attraction pulls the latch member (24, 24", 24"')towards the latch receiver in a direction transverse to the latch member axis; characterised in that the latch receiver <12, 12") having a latch shoulder (14, 146) and the latch member being adapted to engage behind the latch shoulder (14, 146) under movement of the latch member by said magnetic force.
An exposure apparatus arranged to expose a substrate by projecting an image of a predetermined pattern through a liquid onto the substrate, the exposure apparatus comprising: a projection optical system arranged to project the image of the pattern onto the substrate; and a liquid supply mechanism (10, 11, 12, 13, 13A, 14, 14A) arranged to supply the liquid onto the substrate simultaneously from a plurality of positions which are apart, in a plurality of different directions, from a projection area of the projection optical system to form a liquid immersion area on a part of the substrate including the projection area, the liquid supply mechanism is arranged to continuously supply the liquid from the plurality of positions when a plurality of shot areas (S1... S12) on the substrate are successively exposed, the exposure apparatus is arranged to expose each of the plurality of shot areas while moving the substrate in a predetermined scanning direction; characterised in that: the liquid supply mechanism is arranged to supply the liquid onto the substrate simultaneously from both sides of the projection area with respect to the scanning direction. a projection optical system arranged to project the image of the pattern onto the substrate; and a liquid supply mechanism (10, 11, 12, 13, 13A, 14, 14A) arranged to supply the liquid onto the substrate simultaneously from a plurality of positions which are apart, in a plurality of different directions, from a projection area of the projection optical system to form a liquid immersion area on a part of the substrate including the projection area, the liquid supply mechanism is arranged to continuously supply the liquid from the plurality of positions when a plurality of shot areas (S1... S12) on the substrate are successively exposed, the exposure apparatus is arranged to expose each of the plurality of shot areas while moving the substrate in a predetermined scanning direction; characterised in that: the liquid supply mechanism is arranged to supply the liquid onto the substrate simultaneously from both sides of the projection area with respect to the scanning direction. the liquid supply mechanism is arranged to supply the liquid onto the substrate simultaneously from both sides of the projection area with respect to the scanning direction.
A diagnostic measurement system for performing diagnostic measurement of a disease, comprising: an injection device configured to deliver medicament to a patient; a cover forming the exterior of the injection device, the cover comprising a pair of overmolds (110A, 110B); two or more force sensors (130A, 130B) integrated with the injection device and arranged such that at least one of the two or more force sensors (130A, 130B) are positioned below each overmold (110A, 110B), the two or more force sensors (130A, 130B) being configured to measure a grip strength of the patient, wherein measuring the grip strength of a patient comprises measuring the compressive force of a patient's hand and fingers exerted on the pair of overmolds (110A, 110B) as the patient squeezes the injection device; and a processor configured to read data from the one or more force sensors (130A, 130B) and display a measurement related to the grip strength of the patient. an injection device configured to deliver medicament to a patient; a cover forming the exterior of the injection device, the cover comprising a pair of overmolds (110A, 110B); two or more force sensors (130A, 130B) integrated with the injection device and arranged such that at least one of the two or more force sensors (130A, 130B) are positioned below each overmold (110A, 110B), the two or more force sensors (130A, 130B) being configured to measure a grip strength of the patient, wherein measuring the grip strength of a patient comprises measuring the compressive force of a patient's hand and fingers exerted on the pair of overmolds (110A, 110B) as the patient squeezes the injection device; and a processor configured to read data from the one or more force sensors (130A, 130B) and display a measurement related to the grip strength of the patient.
Machine for producing spacers for concrete reinforcements and/or concrete structures, the spacers comprising two parallel straight longitudinal wires, in which the bottom longitudinal wire is connected to the top longitudinal wire by means of a frame structure, the machine furthermore comprising: a. a welding installation for welding together the frame structure to the top longitudinal wire, and welding together the frame structure to the bottom longitudinal wire, and; b. a drive mechanism for transporting the spacers through the welding installation, the drive mechanism comprising a system which securely clamps the spacer for transportation, preferably by means of a mechanical gripping system such as a clamp; wherein the drive mechanism is configured to continuously securely clamp the spacer characterized in that the drive mechanism comprises at least two gripping systems, both of which perform a virtually identical repetitive movement comprising a succession of translational linear movements and pauses, the translational linear movement displacing the spacer, in which the repetitive movement of the first gripping system exhibits a phase shift with respect to the repetitive movement of the second gripping system. a. a welding installation for welding together the frame structure to the top longitudinal wire, and welding together the frame structure to the bottom longitudinal wire, and; b. a drive mechanism for transporting the spacers through the welding installation, the drive mechanism comprising a system which securely clamps the spacer for transportation, preferably by means of a mechanical gripping system such as a clamp; wherein the drive mechanism is configured to continuously securely clamp the spacer characterized in that the drive mechanism comprises at least two gripping systems, both of which perform a virtually identical repetitive movement comprising a succession of translational linear movements and pauses, the translational linear movement displacing the spacer, in which the repetitive movement of the first gripping system exhibits a phase shift with respect to the repetitive movement of the second gripping system.
A light guide device comprising a light guide plate, wherein the light guide plate comprises a first layer of light guiding material in contact with a layer of film, wherein said layer of film has formed on at least one surface: i. a series of microstructures, wherein said microstructures allow light inside the light guide plate to escape therefrom; and ii. an ink in contact with one or more of said microstructures, wherein said ink reduces the amount of light escaping from the light guide plate at said microstructure; and wherein the light guide device comprises one or more light sources and the one or more light sources are encapsulated in the first layer of light guiding material. i. a series of microstructures, wherein said microstructures allow light inside the light guide plate to escape therefrom; and ii. an ink in contact with one or more of said microstructures, wherein said ink reduces the amount of light escaping from the light guide plate at said microstructure;
A method of providing a heating system to an outer skin of an aircraft. comprising: forming laser-induced graphene, LIG, on a polymer sheet by directing laser energy towards the polymer sheet; coupling electrical leads to the LIG; and bonding the polymer sheet against the outer skin or erosion protection layer secured to the outer skin so that to the polymer sheet conforms with a shape of the outer skin. forming laser-induced graphene, LIG, on a polymer sheet by directing laser energy towards the polymer sheet; coupling electrical leads to the LIG; and bonding the polymer sheet against the outer skin or erosion protection layer secured to the outer skin so that to the polymer sheet conforms with a shape of the outer skin.
Prostaglandin F2alpha or analogues for use in the treatment of corneal and conjunctival lesions, wherein the prostaglandin F2alpha or analogues is present in a therapeutic amount in a composition, said composition being in a form suitable for topical application on the ocular surface, wherein said composition is free of deleterious preservatives which damage the ocular surface after one or multiple applications or act as a masking agent preventing the prostaglandin from healing corneal and conjunctival lesions, said analogues are the different isoforms of prostaglandin F2alpha selected in the group comprising 5-6-trans, 15-keto, 15-epi, and 15 prostaglandin F2alpha or modified prostaglandin F2alpha selected in the group comprising esters, ethers, amides, nitroxide and peptidyl of prostaglandin F2alpha.
A mobile robot comprising: (a) means for moving the robot over a surface; (b) an obstacle detection sensor (12, 13) (c) and a control system operatively connected to said obstacle detection sensor (12, 13) and said means for moving; (d) said control system configured to operate the robot in a plurality of modes, said plurality of modes comprising: an obstacle following mode whereby said robot travels adjacent to an obstacle (100, 101), and a bounce mode whereby the robot travels substantially in a direction away from an obstacle (100, 101) after encountering an obstacle (100, 101); characterized in that the mobile robot further comprises a cliff detector and in that said control system is configured to reduce the robot's velocity upon detection of a cliff; and (e) whereby said control system is configured to alternate into said obstacle following mode after a predetermined number of sensor interactions, and wherein the control system alternates between operational modes based upon a lack of sensor input. (a) means for moving the robot over a surface; (b) an obstacle detection sensor (12, 13) (c) and a control system operatively connected to said obstacle detection sensor (12, 13) and said means for moving; (d) said control system configured to operate the robot in a plurality of modes, said plurality of modes comprising: an obstacle following mode whereby said robot travels adjacent to an obstacle (100, 101), and a bounce mode whereby the robot travels substantially in a direction away from an obstacle (100, 101) after encountering an obstacle (100, 101); characterized in that the mobile robot further comprises a cliff detector and in that said control system is configured to reduce the robot's velocity upon detection of a cliff; and (e) whereby said control system is configured to alternate into said obstacle following mode after a predetermined number of sensor interactions, and wherein the control system alternates between operational modes based upon a lack of sensor input.
A cutter implement for cutting crop material, the cutter implement comprising: a housing having a forward end for engaging the crop material when moving in a direction of operation, wherein the housing at least partially defines a cutting region disposed at the forward end thereof; a cutter coupled to the housing and operable to cut the crop material in the cutting region; a curtain coupled to the forward end of the housing and positioned forward of the cutter relative to the direction of operation for engaging and leaning the crop material upstream of the cutter, characterized in that, the curtain includes a stiffness control feature (60, 61, 62, 63, 64, 65, 66) which determines a vertical stiffness of the curtain to provide a variable vertical stiffness that increases with an increase in a bend angle of the curtain rearward relative to the direction of operation. a housing having a forward end for engaging the crop material when moving in a direction of operation, wherein the housing at least partially defines a cutting region disposed at the forward end thereof; a cutter coupled to the housing and operable to cut the crop material in the cutting region; a curtain coupled to the forward end of the housing and positioned forward of the cutter relative to the direction of operation for engaging and leaning the crop material upstream of the cutter, characterized in that, the curtain includes a stiffness control feature (60, 61, 62, 63, 64, 65, 66) which determines a vertical stiffness of the curtain to provide a variable vertical stiffness that increases with an increase in a bend angle of the curtain rearward relative to the direction of operation.
A resin-coated metal sheet for a container, comprising a metal sheet and a resin layer having a multi-layer structure containing polyester as a main component on an inner-surface side of the container when the metal sheet is formed into a container, wherein 1) the resin layer contains terephthalic acid in an amount of 85 mol% or more, 2) the resin layer has at least two layers including an uppermost resin layer which comes in contact with contents and contains wax compound in an amount of 0.10 to 2.0 mass% with respect to the uppermost resin layer; 3) a maximum value of a Raman band intensity ratio (I 1720 /I 1615) when measured for a cross section of the uppermost resin layer by using a laser polarization plane parallel to a surface of the resin layer is in a range of 0.45 or more and 0.80 or less; 4) the uppermost resin layer has a thickness of 0.5 μm or more and 10 μm or less; and 5) the resin layer excluding the uppermost resin layer has a thickness of 5 μm or more and 20 μm or less. 1) the resin layer contains terephthalic acid in an amount of 85 mol% or more, 2) the resin layer has at least two layers including an uppermost resin layer which comes in contact with contents and contains wax compound in an amount of 0.10 to 2.0 mass% with respect to the uppermost resin layer; 3) a maximum value of a Raman band intensity ratio (I 1720 /I 1615) when measured for a cross section of the uppermost resin layer by using a laser polarization plane parallel to a surface of the resin layer is in a range of 0.45 or more and 0.80 or less; 4) the uppermost resin layer has a thickness of 0.5 μm or more and 10 μm or less; and 5) the resin layer excluding the uppermost resin layer has a thickness of 5 μm or more and 20 μm or less.
Compressor for refrigerant, comprising an outer housing, comprising a scroll compressor that is disposed in the outer housing and has a first compressor body, which is fixedly disposed in the outer housing, and a second compressor body, which is movable in relation to the first compressor body, each of these bodies having a base (20, 24) and respective first and second scroll ribs (22, 26), which rise above the respective base (20, 24) and engage in one another in such a way that, for the compression of the refrigerant, the second compressor body is movable on an orbital path about a centre axis with respect to the first compressor body, thereby forming chambers, comprising an outlet in the base of the stationary compressor body, the outlet leading to a high-pressure chamber in the outer housing, and comprising a check valve disposed between the outlet and the high-pressure chamber, the check valve having a valve body which is freely movable, in a movement space extending between a valve seat and a valve guard, between a closed position, determined by the valve seat, and an open position, determined by the valve guard, characterized in that the valve guard is provided with at least one aperture which extends from a mouth opening lying in a contact surface to a high-pressure side of the valve guard, and that the at least one aperture lies laterally with respect to a centre axis of the movement space.
A method, comprising: generating, at a mobile device, a first device security certificate, the first device security certificate including a representation of an identifier of the mobile device and a representation of a device key; transmitting, by the mobile device, the first device security certificate to an authentication server; receiving, at the mobile device, a server security certificate from the authentication server in response to a successful authentication Z of the mobile device by the authentication server, the successful authentication being performed by successfully validating the first device security certificate by the authentication server, the server security certificate including a representation of a server key in a signature of the server security certificate, the server key corresponding to the device key and to a representation of a shared secret stored on the mobile device and known by the authentication server; validating, at the mobile device, the server security certificate by examining the signature of the server security certificate; establishing, by the mobile device, a secure connection with the authentication server based on the device security certificate and the server security certificate; and enrolling, at the mobile device, at least one second device security certificate for formal communication over the secure connection. generating, at a mobile device, a first device security certificate, the first device security certificate including a representation of an identifier of the mobile device and a representation of a device key; transmitting, by the mobile device, the first device security certificate to an authentication server; receiving, at the mobile device, a server security certificate from the authentication server in response to a successful authentication Z of the mobile device by the authentication server, the successful authentication being performed by successfully validating the first device security certificate by the authentication server, the server security certificate including a representation of a server key in a signature of the server security certificate, the server key corresponding to the device key and to a representation of a shared secret stored on the mobile device and known by the authentication server; validating, at the mobile device, the server security certificate by examining the signature of the server security certificate; establishing, by the mobile device, a secure connection with the authentication server based on the device security certificate and the server security certificate; and enrolling, at the mobile device, at least one second device security certificate for formal communication over the secure connection.