mhurhangee/ep-ind-claims huggingface dataset:
Actuator device (1; 101) for actuating a member (5; 105; 6, 7; 106, 107) movable between at least two stable conditions, characterized in that it comprises: a pair of thermal assemblies or linear thermal or electrothermal actuators (3, 4; 31, 41; 131, 141) that can be alternately activated for actuating the movable member (5; 6, 7; 105, 106,107); releasable engagement means (10, 10a; 110, 110a) for holding the position of the movable member (5, 6, 7; 105, 106, 107) in said stable conditions. a pair of thermal assemblies or linear thermal or electrothermal actuators (3, 4; 31, 41; 131, 141) that can be alternately activated for actuating the movable member (5; 6, 7; 105, 106,107); releasable engagement means (10, 10a; 110, 110a) for holding the position of the movable member (5, 6, 7; 105, 106, 107) in said stable conditions.
(+)-(4S,5R)-3,4-dihydroxy-2-(3-methylbutanoyl)-5-(3-methylbutyl)-4-(4-methylpentanoyl)cyclopent-2-en-1-one having the structure: or a salt or crystal thereof, for use in the treatment of diabetes in a subject.
An orthogonal interconnection system for a communication device, comprising a first board group, a second board group orthogonal to the first board group, and a central backplane arranged between the first board group and the second board group, wherein the first board group comprises a plurality of first boards parallel to each other, and the second board group comprises a plurality of second boards parallel to each other; a plurality of right angle male connectors is arranged on each of the first boards, a plurality of right angle female connectors is arranged on each of the second boards, and the right angle male connectors and the right angle female connectors directly cooperate and are connected in one-to-one correspondence; wherein a first connector is arranged on each of the first boards, said first connector being electrically connected to one of the right angle male connectors; wherein a second connector is arranged on each of the second boards, said second connector being electrically connected to one of the right angel female connectors; wherein third connectors and fourth connectors are separately arranged on two perpendicular sides of the central backplane, third connectors and fourth connectors being electrically connected to the first connectors and the second connectors; and wherein a power source and/or a control signal is transmitted to the right angle male connectors sequentially through the third connectors, the first connectors, and the first boards.
A wall assembly, comprising a trellis panel comprising an open framework or lattice of intersecting and interconnected mounting members and support members oriented at right angles to one another; a plurality of facing blocks stacked into a facing wall having a rear face with one or more retaining groove; and a plurality of connectors for connecting each of at least a number of the plurality of facing blocks in the stacked condition to the trellis panel, the plurality of connectors being shaped for insertion into the one or more retaining groove and to resist extraction from the groove in a direction perpendicular to the rear face, wherein the plurality of facing blocks are stacked on both sides of the trellis panel to provide a double sided wall. a trellis panel comprising an open framework or lattice of intersecting and interconnected mounting members and support members oriented at right angles to one another; a plurality of facing blocks stacked into a facing wall having a rear face with one or more retaining groove; and a plurality of connectors for connecting each of at least a number of the plurality of facing blocks in the stacked condition to the trellis panel, the plurality of connectors being shaped for insertion into the one or more retaining groove and to resist extraction from the groove in a direction perpendicular to the rear face, wherein the plurality of facing blocks are stacked on both sides of the trellis panel to provide a double sided wall.
A method, in an egress network device, of updating a plurality of Multiprotocol Label Switching, MPLS, Bidirectional Forwarding Detection, BFD, sessions, wherein each one of the plurality of MPLS BFD sessions is established for a given Label Switched Path, LSP, between an ingress network device and the egress network device of an MPLS network, the method comprising: responsive to determining (6 06) that an MPLS BFD session is in an up state, determining whether the MPLS BFD session is part of the plurality of MPLS BFD sessions; and responsive to determining that the MPLS BFD session is part of the plurality of MPLS BFD sessions, transmitting towards the ingress network device a BFD control packet including an ingress group identifier that uniquely identifies the plurality of MPLS BFD sessions at the ingress network device, and wherein the transmitting the BFD control packet causes an update of a set of two or more of MPLS BFD sessions from the plurality of MPLS BFD sessions identified based on the ingress group identifier. responsive to determining (6 06) that an MPLS BFD session is in an up state, determining whether the MPLS BFD session is part of the plurality of MPLS BFD sessions; and responsive to determining that the MPLS BFD session is part of the plurality of MPLS BFD sessions, transmitting towards the ingress network device a BFD control packet including an ingress group identifier that uniquely identifies the plurality of MPLS BFD sessions at the ingress network device, and wherein the transmitting the BFD control packet causes an update of a set of two or more of MPLS BFD sessions from the plurality of MPLS BFD sessions identified based on the ingress group identifier.
An internal combustion engine cylinder head, including at least one camshaft bearing element (11a, 11b), said bearing element being intended to receive a complementary bearing cap, characterized in that said cylinder head includes a region for the temporary storage of said bearing cap arranged on the cylinder head, said temporary storage region including means for the temporary attachment of said bearing cap on the cylinder head.
Laminate panel (40; 40'; 40"; 40′′′) having a carrier layer (41; 41'; 41"; 41′′′) of wood or wood-based material, wherein at least the upper side of the laminate panel (40; 40'; 40"; 40′′′) has a decor and a layer of a cured resin (46; 46'; 46"; 46′′′), and wherein the rear side of the laminate panel (40; 40'; 40"; 40′′′) has a counter-tension layer of a cured counter-tension material (45; 45'; 45"; 45′′′), and wherein the counter-tension layer has no paper layer, characterised in that one kilogram of the cured counter-tension material contains the following constituents: amino resin: 300 to 700 grams filler: 300 to 700 grams.
A method of completing an oil or gas well comprising the steps of: providing one or more shaped charge perforators comprising a housing, a quantity of high explosive inserted into the housing and a primary liner; selecting at least one insert liner produced separately from the primary liner, the insert liner being suitable for the completion at hand; and retro-fitting the at least one insert liner by attaching it to the primary liner, the insert liner being nested on the inner surface of the primary liner, such that in use at least two cutting jets are produced, wherein the insert liner is made from a composition that produces exothermic energy when under explosive loading. providing one or more shaped charge perforators comprising a housing, a quantity of high explosive inserted into the housing and a primary liner; selecting at least one insert liner produced separately from the primary liner, the insert liner being suitable for the completion at hand; and retro-fitting the at least one insert liner by attaching it to the primary liner, the insert liner being nested on the inner surface of the primary liner, such that in use at least two cutting jets are produced, wherein the insert liner is made from a composition that produces exothermic energy when under explosive loading.
A pressure differential metering device for deployment in an inlet port duct of a control valve, the device comprising a flow restriction element which can be deployed in the inlet port duct within the fluid flow path such that a central axis of said flow restriction element is perpendicular to a direction of said fluid flow path, said flow restriction element having a restrictive cross sectional configuration wherein a circumferential contour of said restrictive cross sectional configuration of said flow restriction element determines a pressure differential created by said flow restriction element and said flow restriction element is configured with an upstream aperture and a downstream aperture, characterized in that said flow restriction element is held in place by a first end-port element and a second end-port element, wherein said first and second end-port elements (104, 106) can be screwed into threaded through bores in the wall of the inlet port duct, whereby said first and second end-port elements (104, 106) provide connection arrangements allowing fluid communication between first and second passageways (112, 122) passing through said first and second end-port elements (104, 106) and a valve control system, said first passageway beginning at the upstream aperture, and said second passageway beginning at the downstream aperture.
An electromagnetic relay, comprising: a base; a first stationary contact terminal having a first stationary contact mounted thereon, the first stationary contact terminal being mounted on the base; a first movable contact plate having a first movable contact mounted on the first movable contact plate; a second stationary contact terminal with a second stationary contact mounted thereon, the second stationary contact terminal being positioned so that the first and second stationary contacts (23, 24) oppose to each other through the first movable contact, which allows the first movable contact to make and break contact with the first and second stationary contacts (23, 24) alternately; an electromagnet unit mounted on the base which moves the first movable contact plate to make or break a contact between the first stationary contact and the first movable contact; a permanent magnet mounted on the base so as to extend an arcing generated between the first stationary contact and the first movable contact toward the base; and wherein the base has a concaved portion provided at a portion toward which the arcing is extended such that, when in operation, the arcing is extended to the bottom of the concaved portion to extinguish the arcing, and wherein the concaved portion has at least one transverse groove defined therein between the first and second stationary contact terminals (21, 22). a base; a first stationary contact terminal having a first stationary contact mounted thereon, the first stationary contact terminal being mounted on the base; a first movable contact plate having a first movable contact mounted on the first movable contact plate; a second stationary contact terminal with a second stationary contact mounted thereon, the second stationary contact terminal being positioned so that the first and second stationary contacts (23, 24) oppose to each other through the first movable contact, which allows the first movable contact to make and break contact with the first and second stationary contacts (23, 24) alternately; an electromagnet unit mounted on the base which moves the first movable contact plate to make or break a contact between the first stationary contact and the first movable contact; a permanent magnet mounted on the base so as to extend an arcing generated between the first stationary contact and the first movable contact toward the base; and wherein the base has a concaved portion provided at a portion toward which the arcing is extended such that, when in operation, the arcing is extended to the bottom of the concaved portion to extinguish the arcing, and
Gearshift dome unit, having a gearshift dome housing, a selector shaft and a bearing arrangement (11, 12) for supporting the selector shaft, wherein the bearing arrangement (11, 12) is provided with a bearing device, wherein the bearing device is designed for the pivotable and/or displaceable mounting of the shaft, having a holding section (14, 15), wherein the bearing device is arranged in a holder of the holding section (14, 15), having a retaining element (23, 28), wherein the retaining element (23, 28) is arranged and/or designed to prevent the bearing device moving out of the holder, and having a holding element (17, 27) for the retaining element (23, 28), wherein the retaining element (23, 28) is inserted into the holding element (17, 27) in an insertion direction at an angle to the longitudinal extent of the shaft.
Loading and unloading device for ambulances or transport vehicles comprising: a) a loading and unloading opening with a first function device for loading and unloading, b) a drive to activate the first function device, c) a drive controller, which controls the drive, d) an activation mechanism to activate the drive controller, e) a second function device for loading and unloading whose drive is controlled by the drive controller, characterized in that f) a pushing or pulling device driven by a motor for a stretcher or cargo on the second function device, designed as a ramp, moves a lifting platform and/or the lift, whereby the motor for the pushing or pulling device is activated by the drive controller. a) a loading and unloading opening with a first function device for loading and unloading, b) a drive to activate the first function device, c) a drive controller, which controls the drive, d) an activation mechanism to activate the drive controller, e) a second function device for loading and unloading whose drive is controlled by the drive controller, characterized in that f) a pushing or pulling device driven by a motor for a stretcher or cargo on the second function device, designed as a ramp, moves a lifting platform and/or the lift, whereby the motor for the pushing or pulling device is activated by the drive controller.
A biological measurement system for measuring the concentration of components included in a sample in aerosol form, the system characterised in that it comprises: • collecting means (30, 50, 210) having an inside surface for collecting the sample by deposition; • concentrating means (200, 230, 430) for scraping the sample from the inside surface of said collecting means; • marking means (1530, 1540) for optically labelling the components present in the concentrated sample; and • interrogating means (50, 450, 510,) for optically interrogating the labelled components and thereby generating a measure of the concentration of components present in the sample; wherein said concentrating means (200, 230, 430) are configured to spatially concentrate said sample against an optical surface (J20, 420, 450) within said collecting means through which, in use, optical interrogation takes place. • collecting means (30, 50, 210) having an inside surface for collecting the sample by deposition; • concentrating means (200, 230, 430) for scraping the sample from the inside surface of said collecting means; • marking means (1530, 1540) for optically labelling the components present in the concentrated sample; and • interrogating means (50, 450, 510,) for optically interrogating the labelled components and thereby generating a measure of the concentration of components present in the sample; wherein said concentrating means (200, 230, 430) are configured to spatially concentrate said sample against an optical surface (J20, 420, 450) within said collecting means through which, in use, optical interrogation takes place.
A method for indicating downlink resources of a coordinated multi-point network, wherein the coordinated multi-point network is in a Long-Term Evolution, LTE, system, the method comprising: determining a control station and cell and a service station and cell of a User Equipment, UE; and indicating, by the control station and cell, through signaling that a Physical Downlink Shared Channel, PDSCH, of the UE occupies radio resources in a control region of the service station and cell, whereby a start position of the PDSCH allocated for the UE by the service station and cell is a first symbol of a subframe, and when a resource mapping in the control region is performed, the PDSCH does not occupy Resource Elements, REs, occupied by a Cell Reference Signal, CRS, a Physical Control Format Indicator Channel, PCFICH, a Physical Hybrid-ARQ Indicator Channel, PHICH, and a Physical Downlink Control Channel, PDCCH, of the UE. determining a control station and cell and a service station and cell of a User Equipment, UE; and indicating, by the control station and cell, through signaling that a Physical Downlink Shared Channel, PDSCH, of the UE occupies radio resources in a control region of the service station and cell, whereby a start position of the PDSCH allocated for the UE by the service station and cell is a first symbol of a subframe, and when a resource mapping in the control region is performed, the PDSCH does not occupy Resource Elements, REs, occupied by a Cell Reference Signal, CRS, a Physical Control Format Indicator Channel, PCFICH, a Physical Hybrid-ARQ Indicator Channel, PHICH, and a Physical Downlink Control Channel, PDCCH, of the UE.
A method for operating a tray sealing machine, in particular a tray sealer, comprising the following steps of the method: gripping a packaging tray, in particular a tray, by means of a gripper, placing the packaging tray on a support plate in the region of an interior space of an open sealing tool chamber which comprises an upper sealing tool part and a lower sealing tool part, sealing the packaging tray with a top film, gripping the packaging tray with the gripper, taking the packaging tray away from the support plate, characterized in that placement of the packaging tray on the support plate is followed by lifting of the support plate and the packaging tray positioned thereon as well as at the same time, at least at times, moving the gripper out of the region of the interior space of the sealing tool chamber, and is followed by lifting of the lower sealing tool part until contact is made with the upper sealing tool part in order to close the sealing tool chamber, wherein at the same time, at least at times, the support plate carries out a relatively slower upward movement than the lower sealing tool part and in this manner moves into the lower sealing tool part. gripping a packaging tray, in particular a tray, by means of a gripper, placing the packaging tray on a support plate in the region of an interior space of an open sealing tool chamber which comprises an upper sealing tool part and a lower sealing tool part, sealing the packaging tray with a top film, gripping the packaging tray with the gripper, taking the packaging tray away from the support plate, characterized in that placement of the packaging tray on the support plate is followed by lifting of the support plate and the packaging tray positioned thereon as well as at the same time, at least at times, moving the gripper out of the region of the interior space of the sealing tool chamber, and is followed by lifting of the lower sealing tool part until contact is made with the upper sealing tool part in order to close the sealing tool chamber, wherein at the same time, at least at times, the support plate carries out a relatively slower upward movement than the lower sealing tool part and in this manner moves into the lower sealing tool part.
A digital inkjet printing process for forming a 2.5D pattern on a surface region of a substrate, the process comprising depositing by inkjet printing a water-based color ink formulation on a substrate having a recipient surface region to thereby form a layered 2.5D pattern comprising a plurality of material layers structured to adopt the 2.5D pattern with a preselected design; wherein the water-based color ink formulation optionally contains a pigment, the 2.5D pattern has a thickness of not greater than 1 mm, wherein the process does not comprise deposition of UV-based ink formulations or UV-irradiation steps, and wherein the recipient surface is a recipient layer comprising at least one ink fixation agent and a vinyl acetate/ethylene copolymer -based material, wherein the VAE-based material is selected from VAE and a VAE derivative. the water-based color ink formulation optionally contains a pigment, the 2.5D pattern has a thickness of not greater than 1 mm, wherein the process does not comprise deposition of UV-based ink formulations or UV-irradiation steps, and wherein the recipient surface is a recipient layer comprising at least one ink fixation agent and a vinyl acetate/ethylene copolymer -based material, wherein the VAE-based material is selected from VAE and a VAE derivative.
A continuous casting device (1, 201, 301, 401) for titanium ingot and titanium alloy ingot that injects a molten metal having titanium or a titanium alloy melted therein into a bottomless mold (2, 12, 22) via a plurality of hearths (3; 13; 23) and while solidifying the molten metal, withdraws the resulting ingot downward, and thereby produces an ingot made of the titanium or titanium alloy by continuous casting, wherein the continuous casting device is configured such that, as at least some of the hearths, hearths (3, 13) for titanium to be used at the time of continuous casting for titanium ingot and hearths for titanium alloy to be used at the time of continuous casting for titanium alloy ingot can be used exchangeably, the number of the hearths for titanium alloy is greater than the number of the hearths for titanium, and the total capacity of the hearths for titanium alloy is greater than the total capacity of the hearths for titanium. wherein the continuous casting device is configured such that, as at least some of the hearths, hearths (3, 13) for titanium to be used at the time of continuous casting for titanium ingot and hearths for titanium alloy to be used at the time of continuous casting for titanium alloy ingot can be used exchangeably, the number of the hearths for titanium alloy is greater than the number of the hearths for titanium, and the total capacity of the hearths for titanium alloy is greater than the total capacity of the hearths for titanium.