mhurhangee/ep-ind-claims huggingface dataset:
A tunnelling shield, comprising: a movable protective structure for use during excavation of a tunnel, the movable protective structure configured to protect an interior region thereof from collapse of the tunnel; at least one guiding probe arranged to project from a leading edge of the movable protective structure into geology into which the tunnel is to be excavated, the at least one guiding probe configured to guide the shield into position; and a jet grouting tool located on the at least one guiding probe, the jet grouting tool configured to inject grout into the geology to improve its quality. a movable protective structure for use during excavation of a tunnel, the movable protective structure configured to protect an interior region thereof from collapse of the tunnel; at least one guiding probe arranged to project from a leading edge of the movable protective structure into geology into which the tunnel is to be excavated, the at least one guiding probe configured to guide the shield into position; and a jet grouting tool located on the at least one guiding probe, the jet grouting tool configured to inject grout into the geology to improve its quality.
A method for providing service access to a user, comprising the steps of: a) Registering a local identity provider located in a local network at a global identity provider by the local identity provider with a local identifier of the local identity provider, the global identity provider connected to the local network and a global network, b) Requesting service access requiring identity authentication to a service provider, located in the global network, by a user located in the local network, c) Requesting an identity management service from the global identity provider by the service provider, d) Redirecting by the global identity provider the user's access request to the local identity provider according to the provided local identifier within the local network, e) Checking if the local identifier corresponds to the local network of the user by the local identity provider, f) Providing the requested identity management service to the service provider by the global identity provider in accordance with a result of the checking according to step e), and g) Granting service access for the user to the service provider by the service provider. a) Registering a local identity provider located in a local network at a global identity provider by the local identity provider with a local identifier of the local identity provider, the global identity provider connected to the local network and a global network, b) Requesting service access requiring identity authentication to a service provider, located in the global network, by a user located in the local network, c) Requesting an identity management service from the global identity provider by the service provider, d) Redirecting by the global identity provider the user's access request to the local identity provider according to the provided local identifier within the local network, e) Checking if the local identifier corresponds to the local network of the user by the local identity provider, f) Providing the requested identity management service to the service provider by the global identity provider in accordance with a result of the checking according to step e), and g) Granting service access for the user to the service provider by the service provider.
A method operating at a Radio Unit, RU, element of an access system providing access with respect to information in Internet Protocol, IP, version 6, IPv6, over Low Power Wireless Personal Area Network, 6LoWPAN, format, the method comprising: receiving 6LoWPAN data, 6LO data, packets from a router coupled to an external packet-switched network; examining a destination IP address of the 6LO data packets and determining an address of at least one active antenna element to which the 6LO data packets are to be delivered; repackaging the 6LO data packets as a control channel message in a format specified for a control channel associated with an Ethernet cable link between the RU element and the at least one active antenna element; transmitting the repackaged 6LO data packets to the at least one active antenna element via the Ethernet cable link as the control channel message; receiving cellular communications radio bits from a Digital Unit, DU, element coupled to the RU element via a communication link operable with Common Public Radio Interface, CPRI, protocol, wherein the cellular communications radio bits destined for the at least one active antenna element are multiplexed as in-phase and quadrature, IQ, data; and transmitting the cellular communications radio bits to the at least one active antenna element in a downlink frequency band of a frequency band plan associated with the Ethernet cable link. receiving 6LoWPAN data, 6LO data, packets from a router coupled to an external packet-switched network; examining a destination IP address of the 6LO data packets and determining an address of at least one active antenna element to which the 6LO data packets are to be delivered; repackaging the 6LO data packets as a control channel message in a format specified for a control channel associated with an Ethernet cable link between the RU element and the at least one active antenna element; transmitting the repackaged 6LO data packets to the at least one active antenna element via the Ethernet cable link as the control channel message; receiving cellular communications radio bits from a Digital Unit, DU, element coupled to the RU element via a communication link operable with Common Public Radio Interface, CPRI, protocol, wherein the cellular communications radio bits destined for the at least one active antenna element are multiplexed as in-phase and quadrature, IQ, data; and transmitting the cellular communications radio bits to the at least one active antenna element in a downlink frequency band of a frequency band plan associated with the Ethernet cable link.
A gas turbine engine comprising: a high speed shaft, the high speed shaft including a compressor (34, 36) and a turbine (40, 42); a combustor between the compressor (34, 36) and the turbine (40, 42); a low speed shaft, the low speed shaft including a fan and an integrated starter/generator, the low speed shaft being collinear with the high speed shaft but not rotating within the high speed shaft; and a speed reduction gear box connecting the low speed shaft to the high speed shaft, wherein air flows into the fan and exits as a bypass air flow and a core flow, the core flow entering the compressor (34, 36), then flowing to the combustor to burn with a fuel, and then flowing through the turbine (40, 42), the turbine driving the low speed shaft through the speed reduction gear box, the high speed shaft being supported by a first bearing located between the speed reduction gear box and the compressor (34, 36) and a second bearing located aft of the turbine (40, 42), and the low speed shaft being supported by a third bearing located between the fan and the integrated starter/generator and a fourth bearing located between the integrated starter/generator and the speed reduction gear box. a high speed shaft, the high speed shaft including a compressor (34, 36) and a turbine (40, 42); a combustor between the compressor (34, 36) and the turbine (40, 42); a low speed shaft, the low speed shaft including a fan and an integrated starter/generator, the low speed shaft being collinear with the high speed shaft but not rotating within the high speed shaft; and a speed reduction gear box connecting the low speed shaft to the high speed shaft, wherein air flows into the fan and exits as a bypass air flow and a core flow, the core flow entering the compressor (34, 36), then flowing to the combustor to burn with a fuel, and then flowing through the turbine (40, 42), the turbine driving the low speed shaft through the speed reduction gear box, the high speed shaft being supported by a first bearing located between the speed reduction gear box and the compressor (34, 36) and a second bearing located aft of the turbine (40, 42), and the low speed shaft being supported by a third bearing located between the fan and the integrated starter/generator and a fourth bearing located between the integrated starter/generator and the speed reduction gear box.
A packaging material for a cell which comprises a laminate body including at least a base material layer, a bonding layer, a metal layer and a sealant layer in this order, characterised in that the bonding layer satisfies at least two of the following properties to: The hardness is 20 to 115 MPa when an indenter is pressed into the bonding layer by 5 μm from the cross-section of the laminate body using a nano-indenter. The peak temperature is 10 to 60°C for the loss modulus peak that is acquired when a dynamic viscoelasticity is measured at a frequency of 1 Hz for the bonding layer. I H /I M is 0.15 to 1.5, where an integral value of peak areas existing in 2800 to 3000 cm -1 is defined as I M, and an integral value of peak areas existing in 3100 to 3500 cm -1 is defined as I H, which are measured using an infrared absorption spectrum. The hardness is 20 to 115 MPa when an indenter is pressed into the bonding layer by 5 μm from the cross-section of the laminate body using a nano-indenter. The peak temperature is 10 to 60°C for the loss modulus peak that is acquired when a dynamic viscoelasticity is measured at a frequency of 1 Hz for the bonding layer. I H /I M is 0.15 to 1.5, where an integral value of peak areas existing in 2800 to 3000 cm -1 is defined as I M, and an integral value of peak areas existing in 3100 to 3500 cm -1 is defined as I H, which are measured using an infrared absorption spectrum.
Metal-air button cell, in particular a zinc-air button cell, comprising a metal-containing anode and an air cathode as the electrochemical active components and a housing which encloses them and has between 1 and 128 inlet openings via which atmospheric oxygen can enter the housing, wherein the housing comprises a cell cup and a cell lid and the inlet openings are made in the bottom of the cell cup, and wherein at least some of the inlet openings have an opening surface area of < 0.025 mm 2, preferably < 0.01 mm 2, and wherein the air cathode has the form of a flat layer and rests directly on the bottom of the cell cup.
A flap valve device comprising a main body having an opening, a flap for selectively closing the opening, and a torsion coil spring provided between the main body and the flap, the flap valve device further comprising: a main body side bearing provided on the main body; a flap side bearing provided on the flap; a hinge shaft passed through the main body side bearing, the flap side bearing and a coil portion of the torsion coil spring so as to serve as a pivot shaft for the flap; and a spring engagement portion provided on the main body for engaging an end of the torsion coil spring; characterized by: the flap valve device being a normally open flap valve device and the torsion coil spring being for biasing the flap in an opening direction; a connecting member including said hinge shaft and an extension extending from an end of the hinge shaft along an outer part of the flap; and another end of the torsion coil spring being engaged by the extension, the extension being engaged on the outer part of the flap. a main body side bearing provided on the main body; a flap side bearing provided on the flap; a hinge shaft passed through the main body side bearing, the flap side bearing and a coil portion of the torsion coil spring so as to serve as a pivot shaft for the flap; and a spring engagement portion provided on the main body for engaging an end of the torsion coil spring; characterized by: the flap valve device being a normally open flap valve device and the torsion coil spring being for biasing the flap in an opening direction; a connecting member including said hinge shaft and an extension extending from an end of the hinge shaft along an outer part of the flap; and another end of the torsion coil spring being engaged by the extension, the extension being engaged on the outer part of the flap. the flap valve device being a normally open flap valve device and the torsion coil spring being for biasing the flap in an opening direction; a connecting member including said hinge shaft and an extension extending from an end of the hinge shaft along an outer part of the flap; and another end of the torsion coil spring being engaged by the extension, the extension being engaged on the outer part of the flap.
Instrument for taking a tissue sample comprising a tissue receiving element that has a distal end and a proximal end and at least partly consists of a spiral or helix, said spiral or helix comprising the distal end and having an outer surface and an inner surface and a central longitudinal axis (X-X'), whereby the spiral or helix at least has a first zone whereby for each point of a first intersecting line of the outer surface and a plane of which the central longitudinal axis (X-X') forms part, the distance (d) from the outer surface to the central longitudinal axis (X-X') is less than or equal to the distance (d) of the outer surface to the central longitudinal axis (X-X') on every more proximally located point along said first intersecting line, and a tubular cutting element is fittingly applied around the tissue receiving element and at a distal end is provided with a cutting edge, characterised in that the spiral or helix at least has a second zone whereby for each point of a second intersecting line of the inner surface and a plane of which the central longitudinal axis (X-X') forms part, the distance (d') from the inner surface to the central longitudinal axis (X-X') is greater than or equal to the distance (d') from the inner surface to the central longitudinal axis (X-X') on every more proximally located point along said second intersecting line, and whereby the first and the second zone fully coincide and comprise the distal end of the spiral or helix.
Structural panel unit comprising a first plate and continuous web members (13, 14) extending along intersecting directions so as to support the first plate, the web members (13, 14) being each slotted (141, 131) partway through at their intersections so that they fit into one another, the web members comprising first web members and second web members, wherein the first web members are so disposed as to have slots open towards the first plate and in which slots fit the second web members, characterized by the first web members being united to the first plate thereby interlocking the second web members, and wherein the second web members are linked to the first plate by no other means than by interlocking with the first web members.
A method for preparing a partial or full dental prosthesis, including the following steps: 1. Acquiring a patient's oral situation by optical recordal digitizing; 2. Effecting the set-up and positioning of the prosthesis restoration virtually on a computer and individually adapted to the patient's oral situation, wherein the set-up and positioning is effected by selecting appropriate rows of teeth from a digital tooth library, the digital tooth library containing rows of #14 maxillary and mandibular teeth together in one block and/or rows of maxillary and mandibular anterior teeth selected from 13 to 23 together in one block and 33 to 43 together in one block, and/or rows of maxillary and mandibular anterior posterior tooth quadrants selected from 24 to 27, 34 to 37, 14 to 17, and 44 to 47, each together in one block, and; 3. Virtually embedding the teeth arranged in the set-up in a virtual gingiva selected from a digital gingiva library; 4. Producing the real prosthesis. 1. Acquiring a patient's oral situation by optical recordal digitizing; 2. Effecting the set-up and positioning of the prosthesis restoration virtually on a computer and individually adapted to the patient's oral situation, wherein the set-up and positioning is effected by selecting appropriate rows of teeth from a digital tooth library, the digital tooth library containing rows of #14 maxillary and mandibular teeth together in one block and/or rows of maxillary and mandibular anterior teeth selected from 13 to 23 together in one block and 33 to 43 together in one block, and/or rows of maxillary and mandibular anterior posterior tooth quadrants selected from 24 to 27, 34 to 37, 14 to 17, and 44 to 47, each together in one block, and; 3. Virtually embedding the teeth arranged in the set-up in a virtual gingiva selected from a digital gingiva library; 4. Producing the real prosthesis.
A face seal assembly, comprising: a seal carrier; a seal element supported by the seal carrier; a rotating seal plate interactive with the seal element to define a face seal; and a seal arrester configured to engage the seal carrier at a predetermined amount of wear of the seal element to stop wear of the seal element; characterised in that contact of the seal arrester to the seal carrier completes an electrical circuit to initiate an alarm. a seal carrier; a seal element supported by the seal carrier; a rotating seal plate interactive with the seal element to define a face seal; and a seal arrester configured to engage the seal carrier at a predetermined amount of wear of the seal element to stop wear of the seal element; characterised in that contact of the seal arrester to the seal carrier completes an electrical circuit to initiate an alarm.
A gear assembly for an operating rod fitting of a window, a door, or the like with a gearbox, in which a gearwheel that can be controlled by means of a control element is arranged, the cogs (205, 206, 207, 206a) of which cog with the cogging of a coupling, wherein the coupling is coupled with an operating rod of the operating rod fitting and can be moved in the direction of motion of the operating rod by operating the gearwheel, wherein the coupling contains a locking contour (225a, 225b), with which it interacts with a locking contour (224a, 224b) of the gearbox in a locked position of the operating rod fitting, and is placed in the gearbox in such a way that, when the gearwheel is operated, it carries out a movement transverse to the direction of motion of the operating rod in order to lock or unlock the operating rod fitting, characterised in that the operating rod is mounted in a floating manner in the gearbox such that the operating rod can be moved in the gearbox in a direction transverse to the direction of motion of the operating rod.
A security control method performed by a security control system for granting a visitor access into a premise, the method comprising: receiving a request from the host of the premise to issue an identification tag to an expected visitor of the premise; determining the identification tag when requested by a host of the premise; transmitting the identification tag to the visitor via electronic transmission before the visitor reaches the premise; scanning the identification tag of the visitor when the visitor is at the premise; authenticating the identification tag; generating an approving signal upon positive authentication of the identification tag; dispensing an identification token to the visitor upon receiving the approving signal; scanning the identification token of the visitor; and authenticating the identification token to grant the visitor access into the premise. receiving a request from the host of the premise to issue an identification tag to an expected visitor of the premise; determining the identification tag when requested by a host of the premise; transmitting the identification tag to the visitor via electronic transmission before the visitor reaches the premise; scanning the identification tag of the visitor when the visitor is at the premise; authenticating the identification tag; generating an approving signal upon positive authentication of the identification tag; dispensing an identification token to the visitor upon receiving the approving signal; scanning the identification token of the visitor; and authenticating the identification token to grant the visitor access into the premise.
X-ray imaging apparatus, comprising: an X-ray source configured to emit X-radiation; an X-ray detector configured to detect said X-radiation; an interferometer arranged between said X-ray source and said detector, said interferometer comprising at least one interferometric grating; wherein said at least one interferometric grating structure is tiltable around a first axis perpendicular to an optical axis of said imaging apparatus, the at least one grating thereby capable of being oriented at different tilt angles relative to said first axis; at least one further grating, referred to herein as a source grating, arranged between said interferometric grating and said X-ray source, said source grating structure configured to convert said emitted X-radiation into X-radiation with increased coherence; characterised by a grating adapter mechanism to adapt for an effective grating pitch in relation to the source grating and/or in relation to the interferometer, wherein the grating adapter mechanism operates in relation to the source gating to i) exchange the source grating structure (G0, G01) for a new source grating structure having a pitch different from a pitch of the source grating or ii) to at least combine said source grating structure (G0, G01) with another source grating structure having a pitch different from a pitch of the source grating, so as to compensate for a change in effective path length through a space between said source grating (G0, G01) and said interferometer, said change in effective path length being caused by either one of said tilt angles. an X-ray source configured to emit X-radiation; an X-ray detector configured to detect said X-radiation; an interferometer arranged between said X-ray source and said detector, said interferometer comprising at least one interferometric grating; wherein said at least one interferometric grating structure is tiltable around a first axis perpendicular to an optical axis of said imaging apparatus, the at least one grating thereby capable of being oriented at different tilt angles relative to said first axis; at least one further grating, referred to herein as a source grating, arranged between said interferometric grating and said X-ray source, said source grating structure configured to convert said emitted X-radiation into X-radiation with increased coherence; characterised by a grating adapter mechanism to adapt for an effective grating pitch in relation to the source grating and/or in relation to the interferometer, wherein the grating adapter mechanism operates in relation to the source gating to i) exchange the source grating structure (G0, G01) for a new source grating structure having a pitch different from a pitch of the source grating or ii) to at least combine said source grating structure (G0, G01) with another source grating structure having a pitch different from a pitch of the source grating, so as to compensate for a change in effective path length through a space between said source grating (G0, G01) and said interferometer, said change in effective path length being caused by either one of said tilt angles.