mhurhangee/ep-ind-claims huggingface dataset:
A method of production of steel for welded structures excellent in high temperature strength and low temperature toughness characterized by comprising heating a steel material comprising, by mass%, C: 0.003 to 0.05%, Si: 0.60% or less, Mn: 0.6 to 2.0%, P: 0.020% or less, S: 0.010% or less, Cr: 0.8 to 1.5%, Nb: 0.005 to 0.05%, Al: 0.060% or less, and N: 0.001 to 0.006%, further limiting, as an impurity, Mo to 0.03% or less, and further optionally comprising V: 0.01 to 0.10%, one or more of Ni: 0.05 to 0.50%, Cu: 0.05 to 0.50%, B: 0.0002 to 0.003%, and Mg: 0.0002 to 0.005%, and/or one of Ca: 0.0005 to 0.004% and an REM: 0.0005 to 0.008%, having a balance of iron and unavoidable impurities, and having a weld cracking parameter P CM value defined by P CM = C + Si / 30 + Mn / 20 + Cu / 20 + Ni / 60 + Cr / 20 + Mo / 15 + V / 10 + 5 ⁢ B of 0.22% or less, to 1000 to 1300°C in temperature, finishing the hot rolling at a temperature of 800°C or more, and then cooling.
Measuring device for detecting measurement signals during a penetration movement of a penetration body into a surface of a test body or during a scanning movement of the penetration body on the surface of the test body, having a housing which accommodates a force generating apparatus and on which a holding element is arranged spaced apart from the force generating apparatus, said holding element being provided to be moveable relative to the housing at least in one direction along a longitudinal axis of the housing and accommodating the penetration body, and having at least one first measuring apparatus for measuring the depth of penetration of the penetration body into the surface of the test body or of a travelling movement of the penetration body along the longitudinal axis towards the housing during a scanning movement on the surface of the test body, and an extending transmission element is provided between the force generating apparatus and the penetration body, wherein the holding element is provided on the housing portion of the housing and at a distance from the force generating apparatus, and a first sensor element of the first measuring device is fastened in the housing portion of the housing, which is communicating in a non-touching manner with a second sensor element of the first measuring device and being fastened to the transmission element, - wherein the transmission element extends between the force generating apparatus and the holding element in the housing portion of the housing without guidance, and - wherein the holding element is formed as a pressure membrane and has a freedom of movement in at least one degree of freedom, in the movement direction of the force generating apparatus characterized in - that the holding element is formed to be soft in its extension plane at least in the direction of the displacement of the penetration body and rigid in a direction perpendicular thereto. - wherein the transmission element extends between the force generating apparatus and the holding element in the housing portion of the housing without guidance, and - wherein the holding element is formed as a pressure membrane and has a freedom of movement in at least one degree of freedom, in the movement direction of the force generating apparatus characterized in - that the holding element is formed to be soft in its extension plane at least in the direction of the displacement of the penetration body and rigid in a direction perpendicular thereto.
A method for manufacturing an insertion tube of an endoscope from a tubular element, wherein the insertion tube comprises a proximal passive flexible portion and a distal bending portion, wherein cuts (98, 99; 990, 991) are provided in the proximal passive flexible portion, for enabling bending of the proximal passive flexible portion (C,) wherein the cuts (98, 99; 990, 991) in the proximal passive flexible portion are formed such that adjacent cuts (98, 99; 990, 991) are unequally spaced; characterized in that main cuts (98; 990) are provided in the proximal passive flexible portion, said main cuts (98; 990) being equally spaced apart from each other in the longitudinal direction of the proximal passive flexible portion, and adjacent to the main cuts (98; 990), auxiliary cuts (99; 991) are provided in the proximal passive flexible portion, said auxiliary cuts (99; 991) being arranged, in the longitudinal direction of the proximal passive flexible portion, closer to the adjacent main cuts (98; 990) on one side of the auxiliary cuts (99; 991) than to the adjacent main cuts (98; 990) on the other side of the auxiliary cuts (99; 991). wherein the insertion tube comprises a proximal passive flexible portion and a distal bending portion, wherein cuts (98, 99; 990, 991) are provided in the proximal passive flexible portion, for enabling bending of the proximal passive flexible portion (C,) wherein the cuts (98, 99; 990, 991) in the proximal passive flexible portion are formed such that adjacent cuts (98, 99; 990, 991) are unequally spaced; main cuts (98; 990) are provided in the proximal passive flexible portion, said main cuts (98; 990) being equally spaced apart from each other in the longitudinal direction of the proximal passive flexible portion, and adjacent to the main cuts (98; 990), auxiliary cuts (99; 991) are provided in the proximal passive flexible portion, said auxiliary cuts (99; 991) being arranged, in the longitudinal direction of the proximal passive flexible portion, closer to the adjacent main cuts (98; 990) on one side of the auxiliary cuts (99; 991) than to the adjacent main cuts (98; 990) on the other side of the auxiliary cuts (99; 991).
Method for controlling the layer thickness of a coating material on a ribbon moved in its longitudinal direction, wherein the layer's thickness is measured at several points across the ribbon's width by measuring the reflection, and a coating plant is controlled such that the layer's thickness is constant across the ribbon's width, and wherein the transmission of the coating material is measured in addition, and the layer's composition is controlled based on the measured transmission.
A method, comprising: obtaining, by a mobile device, fence information associated with a plurality of geo-fences from a local storage; determining whether to perform geo-fence determination; and in response to determining that geo-fence determination is to be performed, sequentially determining whether the mobile device is currently located within one of the plurality of geo-fences, wherein a sequence according to which the sequential determination is performed is based at least in part on distances between corresponding ones of at least two of the plurality of geo-fences and a current location of the mobile device; and determining (140, 140') a determination time for a next geo-fence determination, wherein the determination time for the next geo-fence determination is based at least in part on a location of a geo-fence among the at least two of the plurality of geo-fences that are currently nearest to the mobile device, and the determination time for the next geo-fence determination indicates when to determine whether the mobile device has entered a specific geographic area corresponding to one or more geo-fences. obtaining, by a mobile device, fence information associated with a plurality of geo-fences from a local storage; determining whether to perform geo-fence determination; and in response to determining that geo-fence determination is to be performed, sequentially determining whether the mobile device is currently located within one of the plurality of geo-fences, wherein a sequence according to which the sequential determination is performed is based at least in part on distances between corresponding ones of at least two of the plurality of geo-fences and a current location of the mobile device; and determining (140, 140') a determination time for a next geo-fence determination, wherein the determination time for the next geo-fence determination is based at least in part on a location of a geo-fence among the at least two of the plurality of geo-fences that are currently nearest to the mobile device, and the determination time for the next geo-fence determination indicates when to determine whether the mobile device has entered a specific geographic area corresponding to one or more geo-fences.
Method for preparing a fibrillated collagen matrix, characterised in that it comprises the following steps: (a) preparing an acid aqueous solution comprising - collagen in the form of monomers at a concentration comprised between 0.1 and 10 mg/ml, advantageously comprised between 0.3 and 5 mg/ml, and - at least one strong acid present at a concentration of 0.01 to 10 mM and a weak acid present at a concentration comprised between 0.1 and 500 mM, (b) the concentration of the solution obtained in (a) up to a collagen concentration comprised between 10 and 250 mg/ml; (c) the formation of fibrils by treatment of the collagen solution obtained in step (b) by a basic gaseous phase or by a basic liquid phase. (a) preparing an acid aqueous solution comprising - collagen in the form of monomers at a concentration comprised between 0.1 and 10 mg/ml, advantageously comprised between 0.3 and 5 mg/ml, and - at least one strong acid present at a concentration of 0.01 to 10 mM and a weak acid present at a concentration comprised between 0.1 and 500 mM, - collagen in the form of monomers at a concentration comprised between 0.1 and 10 mg/ml, advantageously comprised between 0.3 and 5 mg/ml, and - at least one strong acid present at a concentration of 0.01 to 10 mM and a weak acid present at a concentration comprised between 0.1 and 500 mM, (b) the concentration of the solution obtained in (a) up to a collagen concentration comprised between 10 and 250 mg/ml; (c) the formation of fibrils by treatment of the collagen solution obtained in step (b) by a basic gaseous phase or by a basic liquid phase.
An ophthalmic surgical laser system comprising: a laser system configured to deliver a pulsed laser beam at a focal point, the pulsed laser beam attenuated to, a measuring wavelength between 300 nm and 1200 nm, and a measuring power at the focal point below 40 milliwatts; an xy-scan device configured to move the pulsed laser beam in lateral directions; a z-scan device configured to move a depth of focus of the pulsed laser beam; and a controller operably coupled with the laser system, the xy-scan device and the z-scan device, the controller configured to direct the laser system to output the pulsed laser beam at various z depths of a cornea starting at an interior of the cornea and moving toward an exterior of the cornea; a backscatter capture device configured to, capture backscatter from the laser; calculate a power of the captured backscatter as the laser focal point moves in the z depth from the interior side of the cornea to the exterior side of the cornea; record a time as the laser focal point moves in the z depth; a computer configured to determine a cutting distance based on the recorded time the laser focal point moves and the calculated power of the captured backscatter. a laser system configured to deliver a pulsed laser beam at a focal point, the pulsed laser beam attenuated to, a measuring wavelength between 300 nm and 1200 nm, and a measuring power at the focal point below 40 milliwatts; an xy-scan device configured to move the pulsed laser beam in lateral directions; a z-scan device configured to move a depth of focus of the pulsed laser beam; and a controller operably coupled with the laser system, the xy-scan device and the z-scan device, the controller configured to direct the laser system to output the pulsed laser beam at various z depths of a cornea starting at an interior of the cornea and moving toward an exterior of the cornea; a backscatter capture device configured to, capture backscatter from the laser; calculate a power of the captured backscatter as the laser focal point moves in the z depth from the interior side of the cornea to the exterior side of the cornea; record a time as the laser focal point moves in the z depth; a computer configured to determine a cutting distance based on the recorded time the laser focal point moves and the calculated power of the captured backscatter.
A hysteroscopic system, comprising: a hysteroscope having a main body coupled to an extension portion, wherein the extension portion is configured to extend transcervically to a patient's uterine cavity; first, second, and third channels (102, 106, 108a, 108b, 320) extending from the main body to a distal end of the extension portion; a fluid source coupleable to a proximal end of the first channel; a pressure sensor coupleable to a proximal end of the second channel; and a tissue resecting probe configured for introduction through the third channel, wherein the third channel has a straight channel portion that extends longitudinally through the extension portion and a proximal channel portion that extends through the main body; characterized by: the proximal channel portion being configured to provide a selected level of resistance to axial sliding of the tissue resecting probe through the third channel while permitting rotation of the probe within the third channel by a central axis of the proximal channel portion of the third channel being offset and non-parallel from a hypothetical central axis of the straight channel portion of the third channel at a proximal face of the main body. a hysteroscope having a main body coupled to an extension portion, wherein the extension portion is configured to extend transcervically to a patient's uterine cavity; first, second, and third channels (102, 106, 108a, 108b, 320) extending from the main body to a distal end of the extension portion; a fluid source coupleable to a proximal end of the first channel; a pressure sensor coupleable to a proximal end of the second channel; and a tissue resecting probe configured for introduction through the third channel, wherein the third channel has a straight channel portion that extends longitudinally through the extension portion and a proximal channel portion that extends through the main body; the proximal channel portion being configured to provide a selected level of resistance to axial sliding of the tissue resecting probe through the third channel while permitting rotation of the probe within the third channel by a central axis of the proximal channel portion of the third channel being offset and non-parallel from a hypothetical central axis of the straight channel portion of the third channel at a proximal face of the main body.
A method performed by a server-side network attachment point, sNAP, operating as a transparent hypertext transfer protocol, HTTP, proxy on an information-centric network, ICN, the method comprising: receiving, from a client-side network attachment point, cNAP, an incoming ICN message that includes an HTTP request, a request content identifier, CID, a request reverse content identifier, rCID, a request proxy rule identifier, PRID and a node identifier, NID, of the cNAP; wherein the message is the result of a publish event to the CID associated with a fully-qualified domain name, FQDN; generating a coincidental multicast, CMC, group, based on an identical rCID and PRID, by adding the NID of the cNAP to a list of nodes waiting on a response; sending the HTTP request to a web server associated with the FQDN and the sNAP; receiving an HTTP response from the server; wherein the HTTP response includes a resource requested in the HTTP request; and publishing an outgoing ICN message to all NIDs in the CMC group, the outgoing ICN message comprising the HTTP response, the PRID, and the rCID. receiving, from a client-side network attachment point, cNAP, an incoming ICN message that includes an HTTP request, a request content identifier, CID, a request reverse content identifier, rCID, a request proxy rule identifier, PRID and a node identifier, NID, of the cNAP; wherein the message is the result of a publish event to the CID associated with a fully-qualified domain name, FQDN; generating a coincidental multicast, CMC, group, based on an identical rCID and PRID, by adding the NID of the cNAP to a list of nodes waiting on a response; sending the HTTP request to a web server associated with the FQDN and the sNAP; receiving an HTTP response from the server; wherein the HTTP response includes a resource requested in the HTTP request; and publishing an outgoing ICN message to all NIDs in the CMC group, the outgoing ICN message comprising the HTTP response, the PRID, and the rCID.
An industrial vehicle comprising: a frame; and a counterweight connected to a rear part of the frame wherein the frame includes a frame body and an upright wall (151, 152) that extends upward from the frame body, wherein the counterweight is fastened to the upright wall (151,152) by a bolt (1004, 1008, 100C, 100D), and wherein the counterweight has an engaging portion (313, 314) to cover part of the upright wall (151,152) and engage with the upright wall (151, 152), characterized in that the counterweight has a cover (61A, 61B) to cover the bolt (100A, 100B, 100C, 100D) and limit axial movement of the bolt (100A, 100B, 100C, 100D). a frame; and a counterweight connected to a rear part of the frame wherein the frame includes a frame body and an upright wall (151, 152) that extends upward from the frame body, wherein the counterweight is fastened to the upright wall (151,152) by a bolt (1004, 1008, 100C, 100D), and wherein the counterweight has an engaging portion (313, 314) to cover part of the upright wall (151,152) and engage with the upright wall (151, 152), characterized in that the counterweight has a cover (61A, 61B) to cover the bolt (100A, 100B, 100C, 100D) and limit axial movement of the bolt (100A, 100B, 100C, 100D).
An antenna arrangement for a wearable apparatus, comprising: an electronic circuitry comprising at least an antenna matching circuitry; a metallic chassis enclosing the electronic circuitry and configured to operate as an antenna or antennas; at least one grounding electrode (120, 122) coupled to the metallic chassis; at least one feed electrode (124, 126) coupling the antenna matching circuitry to the chassis; a first further antenna disposed on top of one of the at least one grounding electrode configured to function as an antenna of a wideband communication system; and a second further antenna disposed on top of the chassis such that the second antenna does not extend over any grounding electrode coupled to the metallic chassis, and configured to provide a resonance frequency on a frequency band of a narrowband communication system, wherein the first and second further antenna are attached to the chassis and wherein the first and second further antenna are coupled to the antenna matching circuitry with further feed electrodes, wherein the antenna matching circuitry provides different antenna matching configurations to the antenna or antennas formed by the chassis and to said first and second further antenna. an electronic circuitry comprising at least an antenna matching circuitry; a metallic chassis enclosing the electronic circuitry and configured to operate as an antenna or antennas; at least one grounding electrode (120, 122) coupled to the metallic chassis; at least one feed electrode (124, 126) coupling the antenna matching circuitry to the chassis; a first further antenna disposed on top of one of the at least one grounding electrode configured to function as an antenna of a wideband communication system; and a second further antenna disposed on top of the chassis such that the second antenna does not extend over any grounding electrode coupled to the metallic chassis, and configured to provide a resonance frequency on a frequency band of a narrowband communication system, wherein the first and second further antenna are attached to the chassis and wherein the first and second further antenna are coupled to the antenna matching circuitry with further feed electrodes, wherein the antenna matching circuitry provides different antenna matching configurations to the antenna or antennas formed by the chassis and to said first and second further antenna.
A nozzle (200,400) of a plasma arc torch, the nozzle configured to reduce fluid pressure surging in a nozzle plenum (208,408), the nozzle comprising: a nozzle body (202,402) having a proximal end and a distal end, the nozzle plenum defined between the nozzle body and an electrode (302,502) of the plasma arc torch; a nozzle plenum gas inlet (214,414) located at the proximal end of the nozzle body; a plasma gas exit orifice (216,416) located at the distal end of the nozzle body; a plasma gas passageway (218,418) fluidly connecting the nozzle plenum gas inlet to the plasma gas exit orifice; and characterised by an isolation chamber (224,424) having a common inlet and outlet (226,426) fluidly connected to the plasma gas passageway and the nozzle plenum, the isolation chamber sized to receive a volume of substantially stagnant gas to reduce the fluid pressure surging in the nozzle plenum. a nozzle body (202,402) having a proximal end and a distal end, the nozzle plenum defined between the nozzle body and an electrode (302,502) of the plasma arc torch; a nozzle plenum gas inlet (214,414) located at the proximal end of the nozzle body; a plasma gas exit orifice (216,416) located at the distal end of the nozzle body; a plasma gas passageway (218,418) fluidly connecting the nozzle plenum gas inlet to the plasma gas exit orifice; and characterised by an isolation chamber (224,424) having a common inlet and outlet (226,426) fluidly connected to the plasma gas passageway and the nozzle plenum, the isolation chamber sized to receive a volume of substantially stagnant gas to reduce the fluid pressure surging in the nozzle plenum.
Three-dimensional electromagnetic nanoresonator structure dispersible in a liquid medium, comprising a stack of laterally confined layers (12, 14, 16) that includes at least a first and a second layer of a respective conductive material between which a dielectric layer is interposed, which can be represented by a resonant equivalent electrical circuit having a nominal resonant frequency determined by the geometrical dimensions of the structure, wherein said first and second layer (12, 16) are made of different conductive materials, characterised in that said layers of conductive material (12, 16) have each an accessible base surface (12", 16") and an accessible side surface (12', 16'), and said dielectric layer has an accessible side surface, each accessible base and side surface being adapted to be exposed in a liquid environment in which said structure is immersed.
A closing mechanism of a tube clamp comprising a slide link which is prepared and configured to be movably arranged or supported axially on a flap pivoted on a casing, the slide link undercutting at least one pin or bolt arranged/formed on the casing when the slide link is moved axially in the direction of a locking position and thus increasingly pulling the flap against the casing with the axial movement in the direction of the locking position in order to pull and lock the slide link against the casing by moving it axially relative to the flap, a tube clamp fixed in the casing having a first clamping leg and a second clamping leg which are pivotably connected to one another at one end, the slide link including at least one locking element provided for closing the tube clamp while the slide link is axially moved, characterized in that an actuating element, which is arranged on the first clamping leg, is arranged between the slide link and the tube clamp for transmitting a clamping force from the locking element to the tube clamp and has a spring elasticity with a specific stiffness which is selected such that when the closing mechanism is actuated, a clamping force is applied to the tube clamp, which at the maximum leads to complete squeezing of a tube inserted therein.