mhurhangee/ep-ind-claims huggingface dataset:
An access gateway node for coupling a radio access network in a wireless communications network to an external data network, the access gateway node comprising: a data function to route packets containing traffic data between the radio access network and the external data network, bypassing a control node of the wireless communications network, wherein the data function routes packets: in a first case, from the access gateway node through a second access gateway node to the external data network, wherein the first case occurs if no access gateway from a list of access gateways that serve a particular access point name, APN, has a normally loaded data function; and in a second case, from the access gateway node to the external data network; and an interface to the control node to enable exchange of control messages between the data function and a control function in the control node. a data function to route packets containing traffic data between the radio access network and the external data network, bypassing a control node of the wireless communications network, wherein the data function routes packets: in a first case, from the access gateway node through a second access gateway node to the external data network, wherein the first case occurs if no access gateway from a list of access gateways that serve a particular access point name, APN, has a normally loaded data function; and in a second case, from the access gateway node to the external data network; and in a first case, from the access gateway node through a second access gateway node to the external data network, wherein the first case occurs if no access gateway from a list of access gateways that serve a particular access point name, APN, has a normally loaded data function; and in a second case, from the access gateway node to the external data network; and an interface to the control node to enable exchange of control messages between the data function and a control function in the control node.
Surge arrester having a spark gap and having a laser (202, 14) for igniting the spark gap, wherein a pump source of the laser is arranged at a distance from a laser-active medium, characterized in that - the laser-active medium of the laser is arranged at the spark gap in order to generate laser radiation, - the pump source and the laser-active medium are connected by means of a transmission fibre, in particular by means of an optical waveguide, and - the spark gap and the laser-active medium are arranged on a high-voltage platform, which is set up in an electrically insulating manner. - the laser-active medium of the laser is arranged at the spark gap in order to generate laser radiation, - the pump source and the laser-active medium are connected by means of a transmission fibre, in particular by means of an optical waveguide, and - the spark gap and the laser-active medium are arranged on a high-voltage platform, which is set up in an electrically insulating manner.
A biocidal textile support comprising bronopol in the dry condition present at the surface of the support and having a biocidal contact action, characterized in that the bronopol is bound, by grafting, to the support with a photo-crosslinked or photo-polymerized binder.
A synchronous detecting mechanism for the tool posture and tool tip position error of five-axis machine tool, including, a mounting device, connected with an external machine tool, used to position and install each measuring device and the following-up platform; the mounting device including the mounting platform; a spatial displacement measuring device, used to measure the micro-displacement of the machine tool tip under test in three orthogonal axes; the spatial displacement measuring device installed on the upper table of the mounting platform; characterized in that, the mechanism comprises: a following-up platform, used to form an orthogonal three axial displacement platform; and the following-up platform mounted on the lower table of the mounting platform; a rotation angle measuring device, used to measure the angle of the machine tool under test around the z axis in the coordinate system of the machine table; the rotation angle measuring device installed on the following platform; a swing angle measuring device, used to measure the swing angle of the machine tool under test deviating from the z axis in the coordinate system of the machine table; wherein the lower part of the swing angle measuring device is fixedly connected with the upper part of the rotation angle measuring device and the upper part of the swing angle measuring device is connected to the tool chuck of the machine tool under test. a following-up platform, used to form an orthogonal three axial displacement platform; and the following-up platform mounted on the lower table of the mounting platform; a rotation angle measuring device, used to measure the angle of the machine tool under test around the z axis in the coordinate system of the machine table; the rotation angle measuring device installed on the following platform; a swing angle measuring device, used to measure the swing angle of the machine tool under test deviating from the z axis in the coordinate system of the machine table; wherein the lower part of the swing angle measuring device is fixedly connected with the upper part of the rotation angle measuring device and the upper part of the swing angle measuring device is connected to the tool chuck of the machine tool under test.
A method performed by a secondary station to obtain a time reference in a cellular network, the method comprising sending, at initial connection to the network, a request for a time reference, said request being addressed to a Signature Generator, wherein the request for time reference includes a randomly generated number used as a nonce, receiving the time reference and the nonce, wherein the time reference and the nonce are signed with a nonce signature, using the nonce and nonce signature to check authenticity of received messages, using the received time reference to configure a clock at the secondary station; the method further comprising receiving a plurality of system information, SI, messages from a plurality of primary stations, said SI messages including each a respective time reference information related to the corresponding primary station, checking the validity of a received signature for each of the primary stations, checking a cell identifier for each of the primary stations with a valid signature, and ignoring time reference information from primary stations with a cell identifier being identical to another primary station and having an earlier value than the one from the other primary station, and deducing a local time reference from one or more of the time reference information originating from primary stations with a valid signature. sending, at initial connection to the network, a request for a time reference, said request being addressed to a Signature Generator, wherein the request for time reference includes a randomly generated number used as a nonce, receiving the time reference and the nonce, wherein the time reference and the nonce are signed with a nonce signature, using the nonce and nonce signature to check authenticity of received messages, using the received time reference to configure a clock at the secondary station; the method further comprising receiving a plurality of system information, SI, messages from a plurality of primary stations, said SI messages including each a respective time reference information related to the corresponding primary station, checking the validity of a received signature for each of the primary stations, checking a cell identifier for each of the primary stations with a valid signature, and ignoring time reference information from primary stations with a cell identifier being identical to another primary station and having an earlier value than the one from the other primary station, and deducing a local time reference from one or more of the time reference information originating from primary stations with a valid signature.
Device for moving a movable furniture part in an opening direction of the furniture part in relation to a carcass of an item of furniture, wherein the movable furniture part can be moved via guide means in the opening direction and in a closing direction which is counter to the opening direction, wherein the device comprises a force accumulator which is mounted on a bearing part such that by means of the mounted device the movable furniture part can be moved by the action of the force accumulator in the opening direction of the movable furniture part, wherein the bearing part comprises an engagement section, and wherein adjusting means are provided for adjusting the force accumulator, wherein the adjusting means comprises two mutually separate guiding areas (101; 104, 107), which are adapted for guiding the engagement section of the bearing part, wherein the guiding areas (101; 104, 107) can be mutually offset relative to one another in order to define an area in which the engagement section is mounted and positioned, wherein the position of the engagement section is determined by the interaction between the two guiding areas (101; 104, 107) such that the position of the engagement section on the device depends on the mutual position of the two guiding areas relative to one another, characterised in that the two guiding areas (101; 104, 107) partially overlap adjacent to one another and establish an overlap area in which the engagement section is mounted and positioned.
Cooling fluid cooler for motor vehicles having a brazed-cooling network comprising flat tubes and fins, manufactured from very thin aluminium sheets (a, b, c), and having header and deflection boxes which are arranged at the ends of the flat tubes for the cooling fluid which flows in the flat tubes and is cooled by means of cooling air which flows through the fins, each flat tube consisting of at least two formed sheet metal strips (a, b, c), at least the one sheet metal strip (a, b) forming the wall of the flat tube and the other sheet metal strip producing an undulating inner insert (c), forming ducts, in the former, the wall thickness (d) of the tubes being in the range from 0.10-0.25 mm and the thickness of the inner insert (c) lying in the range from 0.03-0.10 mm, and the hydraulic diameter on the cooling liquid side lying in the range between 0.8 and 1.5 mm, characterized in that the flat tubes have an overlap in their two narrow sides, with the result that both narrow sides are of stable configuration, and the ratio of the constriction factor on the cooling liquid side to the constriction factor on the cooling air side lying in the range between 0.20 and 0.44, the constriction factor being the ratio of area which is flowed through to end area of the respective medium side.
A method for cutting a sheet metal blank with a predefined contour from a sheet metal strip conveyed continuously in a direction of transport (x) comprising the following step: providing at least one laser cutting device having at least one laser cutting head (L, L1, L2, L3) movable both in the direction of transport (x) and in a y-direction running perpendicularly thereto and also having a control arrangement for controlling the movement of the laser cutting head (L, L1, L2, L3) along a cutting path corresponding to the predefined contour, and characterized in comprising the following steps: continuously measuring a first distance of a first strip edge of the sheet metal strip from a fixed first measurement point in the y-direction by means of a first distance measuring arrangement provided upstream of the laser cutting device, transmitting first measured distance values to the control arrangement, calculating a corrected cutting path with use of a predefined cutting path and the first measured distance values by means of a control program of the control arrangement, and producing a cut in the sheet metal strip by moving the laser cutting head (L, L1, L2, L3) along the corrected cutting path. providing at least one laser cutting device having at least one laser cutting head (L, L1, L2, L3) movable both in the direction of transport (x) and in a y-direction running perpendicularly thereto and also having a control arrangement for controlling the movement of the laser cutting head (L, L1, L2, L3) along a cutting path corresponding to the predefined contour, and characterized in comprising the following steps: continuously measuring a first distance of a first strip edge of the sheet metal strip from a fixed first measurement point in the y-direction by means of a first distance measuring arrangement provided upstream of the laser cutting device, transmitting first measured distance values to the control arrangement, calculating a corrected cutting path with use of a predefined cutting path and the first measured distance values by means of a control program of the control arrangement, and producing a cut in the sheet metal strip by moving the laser cutting head (L, L1, L2, L3) along the corrected cutting path. continuously measuring a first distance of a first strip edge of the sheet metal strip from a fixed first measurement point in the y-direction by means of a first distance measuring arrangement provided upstream of the laser cutting device, transmitting first measured distance values to the control arrangement, calculating a corrected cutting path with use of a predefined cutting path and the first measured distance values by means of a control program of the control arrangement, and producing a cut in the sheet metal strip by moving the laser cutting head (L, L1, L2, L3) along the corrected cutting path.
A gas turbine engine component comprising: a wall having opposing first and second wall surfaces and defining a cooling hole, extending from an inlet located at the first wall surface to an outlet located at the second wall surface; and having a diffusing section in communication with the inlet and extending to the outlet, wherein the diffusing section includes a leading edge formed at an upstream end the outlet;, located upstream of the cooling hole along the second wall surface, and a trailing edge formed at a downstream end of the outlet, located downstream of the cooling hole along the second wall surface, opposite the upstream end, and a plurality of crenellation features located along the trailing edge, wherein each crenellation feature includes a crenellation body that projects from the trailing edge and generally towards the leading edge, and characterised in that each crenellation feature abuts at least one adjacent crenellation feature. a wall having opposing first and second wall surfaces and defining a cooling hole, extending from an inlet located at the first wall surface to an outlet located at the second wall surface; and having a diffusing section in communication with the inlet and extending to the outlet, wherein the diffusing section includes a leading edge formed at an upstream end the outlet;, located upstream of the cooling hole along the second wall surface, and a trailing edge formed at a downstream end of the outlet, located downstream of the cooling hole along the second wall surface, opposite the upstream end, and a plurality of crenellation features located along the trailing edge, wherein each crenellation feature includes a crenellation body that projects from the trailing edge and generally towards the leading edge, and characterised in that each crenellation feature abuts at least one adjacent crenellation feature.
A wastewater treatment system comprising: a headworks for receiving raw sewage wastewater having biosolids; a biological treatment station that is in fluid communication with said headworks; a clarifier downstream of the biological treatment station configured to concentrate biosolids from the raw sewage wastewater, and to separate the wastewater into an effluent component and a waste activated sludge component having a targeted biosolids content of 0.5-5 percent, weight/volume, of the WAS; a first conduit for transporting WAS away from the clarifier, the first conduit comprising a treatment zone and an oxidant administration component located within the treatment zone; and a chlorine dioxide generator in fluid communication with the oxidant administration component of said first conduit, the oxidant administration component being configured to dose oxidant consisting of chlorine dioxide into said treatment zone at a dose rate between 25 and 200 parts per million of the WAS in the treatment zone so as to completely mix the oxidant within 30 seconds of dose delivery in the treatment conduit, to convert the WAS into a treated biosolids sample having a SOUR of 1.5 mg O2/g/hr or less and an ORP of at least +300mV. a headworks for receiving raw sewage wastewater having biosolids; a biological treatment station that is in fluid communication with said headworks; a clarifier downstream of the biological treatment station configured to concentrate biosolids from the raw sewage wastewater, and to separate the wastewater into an effluent component and a waste activated sludge component having a targeted biosolids content of 0.5-5 percent, weight/volume, of the WAS; a first conduit for transporting WAS away from the clarifier, the first conduit comprising a treatment zone and an oxidant administration component located within the treatment zone; and a chlorine dioxide generator in fluid communication with the oxidant administration component of said first conduit, the oxidant administration component being configured to dose oxidant consisting of chlorine dioxide into said treatment zone at a dose rate between 25 and 200 parts per million of the WAS in the treatment zone so as to completely mix the oxidant within 30 seconds of dose delivery in the treatment conduit, to convert the WAS into a treated biosolids sample having a SOUR of 1.5 mg O2/g/hr or less and an ORP of at least +300mV.
Test rig for a rotor blade or a rotor blade segment for a wind turbine - having a support structure to which it is possible to attach one axial end of the rotor blade or of the rotor blade segment, and - at least one excitation unit (12, 21) which can be connected to the rotor blade or the rotor blade segment in order to excite an oscillation of the rotor blade or of the rotor blade segment, wherein a loading means (21, 31) is attached to an articulation point and can be connected to the rotor blade or the rotor blade segment for the testing operation such that a static prestress force, whose force direction comprises at least one component oriented perpendicular to the rotor blade or rotor blade segment, can be applied to the rotor blade or the rotor blade segment, characterized in that the test rig has a spring element which is connected to the loading means and can be arranged between the loading means and the rotor blade or the rotor blade segment such that a spring force can be applied to the rotor blade or the rotor blade segment by means of the spring element in order to influence the oscillation behaviour. - having a support structure to which it is possible to attach one axial end of the rotor blade or of the rotor blade segment, and - at least one excitation unit (12, 21) which can be connected to the rotor blade or the rotor blade segment in order to excite an oscillation of the rotor blade or of the rotor blade segment,
An installation for biotechnological applications (1, 101) comprising at least one container (2, 102) and at least one carrier, wherein the carrier is designed for the mounting of at least one component of the installation (1, 101) and the carrier is designed to be attached directly or indirectly to the installation (1, 101), and the at least one carrier comprises: at least one frame with at least two arms, at least one base plate and at least one deformable element, wherein the deformable element comprises fastening portions and wherein the fastening portions are mounted on the arms of the frame and wherein the deformable element is designed to assume at least the following states: a receiving state, where the deformable element is ready to receive the component of the installation (1, 101); and a locked state, which is produced by the displacement of the component of the installation (1, 101) into the deformable element, whereby the deformable element surrounds at least partially the component of the installation (1, 101), wherein at least one of the fastening portions is mounted in a slidingly rotatable manner in each case by means at least one bearing part attached to one of the fastening portions about a pivot point of a bearing counterpart which is fixed to at least one of the arms and which cannot be rotated with respect to the respective arm. at least one frame with at least two arms, at least one base plate and at least one deformable element, wherein the deformable element comprises fastening portions and wherein the fastening portions are mounted on the arms of the frame and wherein the deformable element is designed to assume at least the following states: a receiving state, where the deformable element is ready to receive the component of the installation (1, 101); and a locked state, which is produced by the displacement of the component of the installation (1, 101) into the deformable element, whereby the deformable element surrounds at least partially the component of the installation (1, 101), a receiving state, where the deformable element is ready to receive the component of the installation (1, 101); and a locked state, which is produced by the displacement of the component of the installation (1, 101) into the deformable element, whereby the deformable element surrounds at least partially the component of the installation (1, 101),
Method for determining the quality of semen of an animal, comprising the steps of: - collecting at least one fresh or frozen semen sample, - measuring at least one absorption spectrum X j from at least one sample of said semen, characterised in that said method further comprises the steps of: - determining, from said at least one absorption spectrum X j, a value of the first derivative of the absorptions X j ′, - calculating at least one of the parameters, representative of the quality of said semen, chosen from the group consisting of concentration Y1, motility Y2, rate of progressive spermatozoa Y3, viability Y4, percentage of live spermatozoa with stable phospholipids Y5, mitochondrial potential Y6, percentage of spermatozoa with peroxidised lipids Y7, percentage of spermatozoa with an intact acrosome Y8, total antioxidant capacity Y9, fatty acid composition Y10, percentage of spermatozoa with normal morphology Y11, osmolarity Y12 and glutathione rate GSH Y13, non-return rate at 56 days Y14, non-return rate at 90 days Y15, pregnancy diagnosis Y16, from said first derivative of the absorption X j ′ previously determined for determining the quality of said semen. - collecting at least one fresh or frozen semen sample, - measuring at least one absorption spectrum X j from at least one sample of said semen, - determining, from said at least one absorption spectrum X j, a value of the first derivative of the absorptions X j ′, - calculating at least one of the parameters, representative of the quality of said semen, chosen from the group consisting of concentration Y1, motility Y2, rate of progressive spermatozoa Y3, viability Y4, percentage of live spermatozoa with stable phospholipids Y5, mitochondrial potential Y6, percentage of spermatozoa with peroxidised lipids Y7, percentage of spermatozoa with an intact acrosome Y8, total antioxidant capacity Y9, fatty acid composition Y10, percentage of spermatozoa with normal morphology Y11, osmolarity Y12 and glutathione rate GSH Y13, non-return rate at 56 days Y14, non-return rate at 90 days Y15, pregnancy diagnosis Y16, from said first derivative of the absorption X j ′ previously determined for determining the quality of said semen.