mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a session, the method comprising: receiving (S1230, S1328; S502), by a Visit Policy and Charging Rules Function, V-PCRF, an S9 session establishment triggering message from a Home Policy and Charging Rules Function, H-PCRF, wherein the S9 session establishment triggering message is used for triggering establishment of an S9 session and a first S9 sub-session, and the first S9 sub-session is used for policy control of Evolved Packet Core, EPC-routed traffic; determining, by the V-PCRF, whether the S9 session has been or is being established; and when it is determined that the S9 session has been or is being established, indicating (S1232, S1330; S506), by the V-PCRF, to the H-PCRF that the S9 session has been or is being established; wherein before determining, by the V-PCRF, whether the S9 session has been or is being established, the method further comprises: sending (S1210, S1308), by the V-PCRF, a session establishment message to the H-PCRF, wherein the session establishment message is used for the establishment of the S9 session and a second S9 sub-session, and the second S9 sub-session is used for policy control of Non-seamless WLAN Offload, NSWO, traffic. receiving (S1230, S1328; S502), by a Visit Policy and Charging Rules Function, V-PCRF, an S9 session establishment triggering message from a Home Policy and Charging Rules Function, H-PCRF, wherein the S9 session establishment triggering message is used for triggering establishment of an S9 session and a first S9 sub-session, and the first S9 sub-session is used for policy control of Evolved Packet Core, EPC-routed traffic; determining, by the V-PCRF, whether the S9 session has been or is being established; and when it is determined that the S9 session has been or is being established, indicating (S1232, S1330; S506), by the V-PCRF, to the H-PCRF that the S9 session has been or is being established; wherein before determining, by the V-PCRF, whether the S9 session has been or is being established, the method further comprises: sending (S1210, S1308), by the V-PCRF, a session establishment message to the H-PCRF, wherein the session establishment message is used for the establishment of the S9 session and a second S9 sub-session, and the second S9 sub-session is used for policy control of Non-seamless WLAN Offload, NSWO, traffic.
Method for producing annular moulded bodies which are subjected to a tensile or compressive load and are formed of a plastics material using an injection mould comprising a main cavity, at least one extra cavity being incorporated in the injection mould in addition to the main cavity, the at least one extra cavity being connected to the main cavity by a connecting duct, comprising the following features: - the main cavity is filled with polymer melt in such a way that a weld line forms in the main cavity in the vicinity of the connecting duct between the at least one extra cavity and the main cavity, the cross section of the connecting duct being dimensioned such that, while the main cavity is being filled, no polymer melt flows into the extra cavity, - the filling pressure is increased until polymer melt flows into the extra cavity, the weld line formed when filling the main cavity being flowed through, - the injection mould is opened and the moulded body removed, characterised in that the weld line is formed so as to be laterally offset with respect to the connecting duct. - the main cavity is filled with polymer melt in such a way that a weld line forms in the main cavity in the vicinity of the connecting duct between the at least one extra cavity and the main cavity, the cross section of the connecting duct being dimensioned such that, while the main cavity is being filled, no polymer melt flows into the extra cavity, - the filling pressure is increased until polymer melt flows into the extra cavity, the weld line formed when filling the main cavity being flowed through, - the injection mould is opened and the moulded body removed, characterised in that the weld line is formed so as to be laterally offset with respect to the connecting duct.
A temperature-measuring multimode optical fiber, comprising a core and a cladding covering the core, wherein the core has a radius in a range from 23.75 μm to 26.25 μm, characterized in that a refractive index profile of the core has a graded refractive index distribution with a refractive index distribution index α in a range from 1.80 to 1.89; and the core has a maximum relative refractive index difference Δ1% in a range from 1.03% to 1.15%, and the core is made of SiO 2 quartz glass of a germanium-fluorine co-doped system, wherein the temperature-measuring optical fiber provides an optimised bandwidth at a wavelength of 1550 nm and reduced attenuation of anti-Stokes Raman scattering light at a wavelength of 1450 nm and of Stokes Raman scattering light at a wavelength of 1660 nm. a refractive index profile of the core has a graded refractive index distribution with a refractive index distribution index α in a range from 1.80 to 1.89; and the core has a maximum relative refractive index difference Δ1% in a range from 1.03% to 1.15%, and the core is made of SiO 2 quartz glass of a germanium-fluorine co-doped system, wherein the temperature-measuring optical fiber provides an optimised bandwidth at a wavelength of 1550 nm and reduced attenuation of anti-Stokes Raman scattering light at a wavelength of 1450 nm and of Stokes Raman scattering light at a wavelength of 1660 nm.
Interior lighting system for an autonomous automotive vehicle, comprising at least one autonomous driving module and an interior lighting luminous device comprising a plurality of luminous sub-assemblies (16a, 16b), characterized in that each luminous sub-assembly is configured in an interior lighting static mode for emitting a luminous signal which is constant over time or in an interior lighting dynamic mode for emitting a luminous signal which varies over time, at least one luminous sub-assembly being configured to pass from the static mode to the dynamic mode, and vice versa, as a function of at least one autonomous driving control parameter from said autonomous driving module, said parameter being a driving state, namely if the vehicle is in autonomous driving or manual driving, and - in that at least one luminous sub-assembly (16a, 16b) is configured to, in the dynamic mode, diffuse an ambient light, the intensity and/or the colour and/or the orientation thereof varying as a function of a control command relative to an audible element, and/or - in that at least one luminous sub-assembly (16a, 16b) is configured to, in the dynamic mode, diffuse an ambient light, the intensity and/or the colour and/or the orientation thereof varying as a function of a control command relative to a visual element. - in that at least one luminous sub-assembly (16a, 16b) is configured to, in the dynamic mode, diffuse an ambient light, the intensity and/or the colour and/or the orientation thereof varying as a function of a control command relative to an audible element, and/or - in that at least one luminous sub-assembly (16a, 16b) is configured to, in the dynamic mode, diffuse an ambient light, the intensity and/or the colour and/or the orientation thereof varying as a function of a control command relative to a visual element.
Method for renovating a road surface, characterized in that a locking ring is arranged around an existing shaft element at a distance from the shaft element, the road surface adjoining the outside of said locking ring, that the locking ring is introduced into the existing road surface by milling, that material of the road surface is then removed in an intermediate area between the shaft element and an inner side of the surrounding locking ring, and that a paving material is introduced into the intermediate area between the shaft element and the inner side of the surrounding locking ring. a locking ring is arranged around an existing shaft element at a distance from the shaft element, the road surface adjoining the outside of said locking ring, that the locking ring is introduced into the existing road surface by milling, that material of the road surface is then removed in an intermediate area between the shaft element and an inner side of the surrounding locking ring, and that a paving material is introduced into the intermediate area between the shaft element and the inner side of the surrounding locking ring.
Connecting device for concrete components, having: at least one cable section which can be embedded in concrete components in at least one section for the connection thereof, and at least one preserving element, wherein the at least one preserving element has at least one aperture through which is passed the at least one cable section, characterised in that the at least one cable section has means for increasing the axial rigidity of the at least one cable section in concrete, wherein the means for increasing the axial rigidity of the cable include means for reducing the geometrical stretch of the at least one cable section, wherein the at least one cable section has a ratio between cable diameter (d) and length of lay (w) of not more than 0.1. at least one cable section which can be embedded in concrete components in at least one section for the connection thereof, and at least one preserving element, wherein the at least one preserving element has at least one aperture through which is passed the at least one cable section,
A wireless device configured to communicate with a network node, the wireless device comprising: processing circuitry configured to: determine that a transmitted wake up signal has been missed before a discontinuous reception, DRX, ON-duration; and perform at least one action during the DRX ON-duration based at least in part on the determination that the wake signal has been missed; and characterized by the processing circuitry being configured to determine that the wake up signal has been missed based at least in part on a signal quality of a previously received wake up signal. processing circuitry configured to: determine that a transmitted wake up signal has been missed before a discontinuous reception, DRX, ON-duration; and perform at least one action during the DRX ON-duration based at least in part on the determination that the wake signal has been missed; and determine that a transmitted wake up signal has been missed before a discontinuous reception, DRX, ON-duration; and perform at least one action during the DRX ON-duration based at least in part on the determination that the wake signal has been missed; and characterized by the processing circuitry being configured to determine that the wake up signal has been missed based at least in part on a signal quality of a previously received wake up signal.
A lighting system comprising: an outdoor street and/or public space light for illuminating an area; a set of physiological sensors for detecting anxiety to be worn or carried by users when in the area; and a controller for controlling the lighting system, comprising: an input for receiving input information from the set of physiological sensors associated with users in the area illuminated by the lighting system and for receiving information about the location of the users within the area; and an output for controlling the outdoor street and/or public space light of the lighting system, wherein the controller is adapted to: - determine, from the input information, anxiety of the user or users when in or approaching a particular region of the area; and - alter the output in an attempt to reduce the anxiety. an outdoor street and/or public space light for illuminating an area; a set of physiological sensors for detecting anxiety to be worn or carried by users when in the area; and a controller for controlling the lighting system, comprising: an input for receiving input information from the set of physiological sensors associated with users in the area illuminated by the lighting system and for receiving information about the location of the users within the area; and an output for controlling the outdoor street and/or public space light of the lighting system, wherein the controller is adapted to: - determine, from the input information, anxiety of the user or users when in or approaching a particular region of the area; and - alter the output in an attempt to reduce the anxiety. an input for receiving input information from the set of physiological sensors associated with users in the area illuminated by the lighting system and for receiving information about the location of the users within the area; and an output for controlling the outdoor street and/or public space light of the lighting system, wherein the controller is adapted to: - determine, from the input information, anxiety of the user or users when in or approaching a particular region of the area; and - alter the output in an attempt to reduce the anxiety. - determine, from the input information, anxiety of the user or users when in or approaching a particular region of the area; and - alter the output in an attempt to reduce the anxiety.
A method comprising: receiving, at a controller, commands, addresses and data at a memory device via a defined interface associated with the memory device, the memory device comprising a first type of memory and a second type of memory, the defined interface corresponding to the first type of memory such that the memory device operates with the access protocol of the first type of memory for both of the first type of memory and the second type of memory; and determining at the controller whether information received at the memory device corresponds to the second type of memory associated with the memory device, and if so, outputting signals to the second type of memory to communicate at least one command to the second type of memory and/or to perform at least one data input / output (I/O) operation on the second type of memory, wherein the first type of memory comprises a volatile memory, and the second type of memory comprises a nonvolatile memory, characterized in that some of the addresses of the memory device in an addressable address range correspond to the first type of memory, and certain addresses of the memory device in the addressable address range are associated with the second type of memory, wherein the determining at the controller whether command and address information received at the memory device corresponds to the second type of memory is based on whether the received addresses are associated with the second type of memory. receiving, at a controller, commands, addresses and data at a memory device via a defined interface associated with the memory device, the memory device comprising a first type of memory and a second type of memory, the defined interface corresponding to the first type of memory such that the memory device operates with the access protocol of the first type of memory for both of the first type of memory and the second type of memory; and determining at the controller whether information received at the memory device corresponds to the second type of memory associated with the memory device, and if so, outputting signals to the second type of memory to communicate at least one command to the second type of memory and/or to perform at least one data input / output (I/O) operation on the second type of memory, wherein the first type of memory comprises a volatile memory, and the second type of memory comprises a nonvolatile memory,
Fan, in particular cross-flow fan, comprising an impeller that is rotatably mounted by means of a bearing and comprises at least two support devices which retain a plurality of fan blades extending therebetween, and comprising a tensioning device for axially exerting tension on the fan blades, characterised in that the bearing is configured as an adjusted bearing comprising two bearing devices (42, 48) which are assigned to the support devices (20, 22) and which form or contribute to forming the tensioning device for exerting tension on the fan blades, such that said tensioning device applies axially opposing, outwardly acting forces on the support devices (20, 22) on which the fan blades are attached in a tension-resistant manner, in each case.
A battery module, comprising: a battery cell; a circuit board, disposed at a top of the battery cell and electrically connected to the battery cell; a temperature sensor, disposed at the top of the battery cell and configured to measure a temperature of the battery cell, wherein the temperature sensor is electrically connected to the circuit board; and a fixing component, wherein the fixing component comprises a fixing portion and a rotation portion, the fixing portion is fixed to the top of the battery cell, and the rotation portion is screwed into the fixing portion so that the temperature sensor is pressed against the battery cell tightly; wherein the fixing portion comprises an inner cavity; the inner cavity runs through to the top of the battery cell, and the temperature sensor is accommodated in the inner cavity; and a mating slot is disposed on a side wall of the inner cavity, and the rotation portion is screwed into the fixing portion along the mating slot. wherein the rotation portion comprises a spindle, a bulge is disposed on a side wall of the spindle, and the bulge is screwed into the fixing portion along the mating slot; wherein a quantity of bulges is two, and two bulges are symmetrically disposed on two sides of the spindle. a battery cell; a circuit board, disposed at a top of the battery cell and electrically connected to the battery cell; a temperature sensor, disposed at the top of the battery cell and configured to measure a temperature of the battery cell, wherein the temperature sensor is electrically connected to the circuit board; and a fixing component, wherein the fixing component comprises a fixing portion and a rotation portion, the fixing portion is fixed to the top of the battery cell, and the rotation portion is screwed into the fixing portion so that the temperature sensor is pressed against the battery cell tightly; wherein the fixing portion comprises an inner cavity; the inner cavity runs through to the top of the battery cell, and the temperature sensor is accommodated in the inner cavity; and a mating slot is disposed on a side wall of the inner cavity, and the rotation portion is screwed into the fixing portion along the mating slot. wherein the rotation portion comprises a spindle, a bulge is disposed on a side wall of the spindle, and the bulge is screwed into the fixing portion along the mating slot; wherein a quantity of bulges is two, and two bulges are symmetrically disposed on two sides of the spindle.
A method of melting copper scrap and/or refining blister copper, comprising the steps of: (a) charging of copper scrap into an empty anode furnace and melting the copper scrap; (b) after performing step (a) charging molten blister copper into the anode furnace; (c) optionally charging more copper scrap into the anode furnace and melting the copper scrap (d) optionally repeating steps (b) and/or (c) one or more times until the anode furnace is full and a desired amount of copper scrap has been charged and melted until a final molten copper batch is obtained; (e) refining the final molten copper batch to obtain anode copper. (a) charging of copper scrap into an empty anode furnace and melting the copper scrap; (b) after performing step (a) charging molten blister copper into the anode furnace; (c) optionally charging more copper scrap into the anode furnace and melting the copper scrap (d) optionally repeating steps (b) and/or (c) one or more times until the anode furnace is full and a desired amount of copper scrap has been charged and melted until a final molten copper batch is obtained; (e) refining the final molten copper batch to obtain anode copper.
A method of treating a hydrocarbon containing formation, comprising: (a) providing a hydrocarbon recovery composition to at least a portion of the hydrocarbon containing formation, wherein the composition comprises one or more internal olefin sulfonates having 17 or more carbon atoms and wherein the hydrocarbon recovery composition comprises from 1 to 75 wt% of the internal olefin sulfonate(s), (b) adding water and/or brine from the hydrocarbon containing formation to the composition, wherein the hydrocarbon recovery composition comprises from 0.01 to 0.75 wt% of the total water and/or brine/hydrocarbon recovery composition mixture (injectable fluid), (c) adding a solubilizer which consists of an ethoxylated alcohol wherein the alcohol before ethoxylation had an average molecular weight of at least 220, wherein the ethoxylated alcohol comprises from 5 to 9 moles of ethylene oxide per mole of alcohol and wherein the solubilizer comprises from 0.02 to less than 0.1 wt% of the mixture of the internal olefin sulfonates, the water and/or brine and the solubilizer, and (d) allowing the composition to interact with hydrocarbons in the hydrocarbon containing formation. (a) providing a hydrocarbon recovery composition to at least a portion of the hydrocarbon containing formation, wherein the composition comprises one or more internal olefin sulfonates having 17 or more carbon atoms and wherein the hydrocarbon recovery composition comprises from 1 to 75 wt% of the internal olefin sulfonate(s), (b) adding water and/or brine from the hydrocarbon containing formation to the composition, wherein the hydrocarbon recovery composition comprises from 0.01 to 0.75 wt% of the total water and/or brine/hydrocarbon recovery composition mixture (injectable fluid), (c) adding a solubilizer which consists of an ethoxylated alcohol wherein the alcohol before ethoxylation had an average molecular weight of at least 220, wherein the ethoxylated alcohol comprises from 5 to 9 moles of ethylene oxide per mole of alcohol and wherein the solubilizer comprises from 0.02 to less than 0.1 wt% of the mixture of the internal olefin sulfonates, the water and/or brine and the solubilizer, and (d) allowing the composition to interact with hydrocarbons in the hydrocarbon containing formation.
An injector device comprising: a container and a plunger that is movable into the container to dispense medicament during operation of the injector device; a biasing member arranged to push the plunger into the container during operation of the device; a latch arranged to hold the plunger in an initial position where the biasing member is under compression prior to operation of the injector device, wherein the plunger is configured to be rotated to disengage the latch; a switch arranged to interact with a structural element of the plunger to detect movement of the plunger during operation of the injector device, wherein the switch is arranged to be aligned with the structural element of the plunger after the plunger has been rotated; and a needle sleeve slidably mounted in the injector device and arranged such that during use the needle sleeve slides into engagement with the plunger to cause the plunger to rotate and disengage the latch. a container and a plunger that is movable into the container to dispense medicament during operation of the injector device; a biasing member arranged to push the plunger into the container during operation of the device; a latch arranged to hold the plunger in an initial position where the biasing member is under compression prior to operation of the injector device, wherein the plunger is configured to be rotated to disengage the latch; a switch arranged to interact with a structural element of the plunger to detect movement of the plunger during operation of the injector device, wherein the switch is arranged to be aligned with the structural element of the plunger after the plunger has been rotated; and a needle sleeve slidably mounted in the injector device and arranged such that during use the needle sleeve slides into engagement with the plunger to cause the plunger to rotate and disengage the latch.