mhurhangee/ep-ind-claims huggingface dataset:
A slice information processing method for use in a communications system, the communications system comprising an access network device permitting one or more terminal devices to access the communications system, the communications system further comprising means for configuring a plurality of slices, wherein each slice is instantiated using one or more network functions and/or one or more communication resources required to provision a communication service to the terminal devices, the method comprising: determining, by the access network device, that a slice service level agreement, SLA, has been signed for a first slice and that no slice SLA has been signed for a second slice; and prioritizing, by the access network device, a terminal service request of the first slice, or deprioritizing a terminal service request of the second slice, wherein the prioritizing the terminal service request of the first slice, and the deprioritizing the terminal service request of the second slice comprises preferentially allocating an air interface resource to the first slice. determining, by the access network device, that a slice service level agreement, SLA, has been signed for a first slice and that no slice SLA has been signed for a second slice; and prioritizing, by the access network device, a terminal service request of the first slice, or deprioritizing a terminal service request of the second slice, wherein the prioritizing the terminal service request of the first slice, and the deprioritizing the terminal service request of the second slice comprises preferentially allocating an air interface resource to the first slice.
Manifold for a heating surface of an anvil for introducing impact forces into the heating surface for removing deposits on the heating surface, wherein the impacts act on the anvil so as to oscillate the heating surface, characterized in that an intermediate ring is attached to the front face of the manifold by force-fittingly and/or form-fittingly mounting a mounting portion of the anvil, the manifold comprises a welded end base at its front face and the intermediate ring is welded to the front face of the end base.
Machine for dispensing beverages comprising a chassis, a pod which comprises at least two cavities (8a, 8b) each containing a volume (VI1, VI2) of ingredients entering into the composition of the beverage, said machine comprising a container for receiving said pod and said machine further comprising a device for injecting air configured to deliver, in a synchronised manner, at least two air volumes (Va1, Va2) respectively adapted to the volumes (VI1, VI2) of the ingredients, in the cavities characterised in that the injection device comprises an air pump comprising two chambers (29, 31) and two pistons (30, 32) mounted sliding respectively in the two chambers, and means for actuating the two pistons, in a synchronised manner.
A locking bracket for securing two adjacent bodies to one another, in particular for securing a gate to a fence post, having a first hoop and a second hoop which, together with the first hoop, surrounds a region for receiving the two adjacent bodies, wherein the hoops (11, 12) respectively have a first end (23, 24) and a second end (25, 26), wherein they are connected to one another in an articulated manner at their first ends (23, 24) so that the hoops (11, 12) can be pivoted between an open position in which the locking bracket can be arranged around the two adjacent bodies and a closed position in which the hoops (11, 12) together surround the region for receiving the two adjacent bodies, wherein each of the hoops (11, 12) forms a lug (27, 28) at their second ends (25, 26), said lug (27, 28) being oriented substantially perpendicular to the second end (25, 26) and having at least one bore, and wherein the lugs (27, 28) of the hoops (11, 12) come to lie in a planoparallel manner with respect to one another in the closed position so that a closing hoop of a padlock can be introduced into the bores of the lugs (27, 28) to secure the hoops (11, 12) to one another, characterized in that at least one of the lugs (27, 28) forms an angled end section (29, 30), with the locking bracket being formed with mirror symmetry with respect to a plane which is oriented perpendicular to the joint axis of the locking bracket.
Method for manufacturing a carrier belt for a reefing blind with the following process steps, - weaving an inelastic belt made from thermoplastic, high-strength, spun-dyed colour threads, - stretching the woven belt, - thermo-setting the woven and stretched belt, characterized in that - the thermo-setting and smoothing of the woven and stretched belt is carried out in a pressing device with two planar surfaces under temperature and pressure and, - subsequently, the thermo-set and smoothed belt is removed from the pressing device. - weaving an inelastic belt made from thermoplastic, high-strength, spun-dyed colour threads, - stretching the woven belt, - thermo-setting the woven and stretched belt, - the thermo-setting and smoothing of the woven and stretched belt is carried out in a pressing device with two planar surfaces under temperature and pressure and, - subsequently, the thermo-set and smoothed belt is removed from the pressing device.
A lighting device comprising: a housing having a hole; a light source body which is disposed under the housing and comprises a terminal; a light emitting module which is disposed in the light source body; and a socket which at least one portion is coupled to the hole of the housing and comprises a connector electrically connected to the terminal, wherein the light emitting module comprises: a first light emitting module which is disposed in the light source body; and a second light emitting module which is disposed adjacent to the first light emitting module, wherein the light source body comprises a first heat radiating structure and a second heat radiating structure, wherein the first heat radiating structure is arranged on the first light emitting module, and the second heat radiating structure is arranged on the second first light emitting module, and wherein an arrangement density of the first heat radiating structure is higher than that of the second heat radiating structure. a housing having a hole; a light source body which is disposed under the housing and comprises a terminal; a light emitting module which is disposed in the light source body; and a socket which at least one portion is coupled to the hole of the housing and comprises a connector electrically connected to the terminal, wherein the light emitting module comprises: a first light emitting module which is disposed in the light source body; and a second light emitting module which is disposed adjacent to the first light emitting module, a first light emitting module which is disposed in the light source body; and a second light emitting module which is disposed adjacent to the first light emitting module, wherein the light source body comprises a first heat radiating structure and a second heat radiating structure, wherein the first heat radiating structure is arranged on the first light emitting module, and the second heat radiating structure is arranged on the second first light emitting module, and wherein an arrangement density of the first heat radiating structure is higher than that of the second heat radiating structure.
A system for electroencephalographic detection of an improper adjustment of a ventilatory support machine used on a mammal, comprising: - an electroencephalograph, capable of measuring, as a function of time, an electroencephalographic signal (s(t)) representative of a breathing process; and - an input for receiving a respiratory initiation signal, different from the electroencephalographic signal (s(t)), capable of indicating a respiratory initiation time (t 0); the detection system further including - means for specifying a beta frequency band comprised between 15 and 30 Hz and with a width comprised between 5 and 10 Hz; - means for processing the measured electroencephalographic signal, configured for processing the measured electroencephalographic signal as it is being acquired, in the sole specified beta frequency band; - means for identifying, for each breathing cycle, an improper adjustment of the ventilatory support machine from the electroencephalographic signal processed in the sole beta frequency band. - an electroencephalograph, capable of measuring, as a function of time, an electroencephalographic signal (s(t)) representative of a breathing process; and - an input for receiving a respiratory initiation signal, different from the electroencephalographic signal (s(t)), capable of indicating a respiratory initiation time (t 0); - means for specifying a beta frequency band comprised between 15 and 30 Hz and with a width comprised between 5 and 10 Hz; - means for processing the measured electroencephalographic signal, configured for processing the measured electroencephalographic signal as it is being acquired, in the sole specified beta frequency band; - means for identifying, for each breathing cycle, an improper adjustment of the ventilatory support machine from the electroencephalographic signal processed in the sole beta frequency band.
A frequency assignment method for selecting a frequency used on a route of an optical signal, passing through one or more optical nodes and connecting between a start point node and an end point node between which traffic demand occurs, the start point node and the end point node being supplied in a photonic network including an optical node that includes an optical switch for switching the optical signal without electrically terminating the optical signal, in a network management apparatus, connected to the photonic network and comprising: a calculation result storage unit configured to store a calculation result of the route and one or more frequencies for use on the route; a router unit configured to perform calculation of the route and store the route calculation result in the calculation result storage unit; and an assignment unit configured to assign a frequency of the route on the network, wherein, the assignment unit refers to the route calculation result of the calculation result storage unit, obtains a correlation amount of state of use of frequencies between adjacent links formed by pairs of nodes of the route, determines a frequency to be set for the route based on the correlation amount, and assigns the frequency on the route, and the method further comprises: a frequency assigning step in which the assignment unit refers to the route calculation result of the calculation result storage unit so as to obtain, for each optical node forming the route of the route calculation result, a correlation amount of state of use of frequencies between a selected link and an adjacent link, and to add a frequency in which states of use are most consecutive between adjacent links.
A method of scheduling resource across a region of available radio spectrum to a user equipment in a cell supported by a base station of a wireless communication network, said base station being configured to support communication with said user equipment in said cell using a first portion of said region of available radio spectrum using a first antenna or a second portion of said region of available radio spectrum using a second antenna; said method comprising: receiving an indication of signal to interference and noise ratio experienced at each user equipment in the first and second portion of the region of available radio spectrum; creating an initial association with one of said first or second portion of said region of available radio spectrum for each user equipment based on said received indication; identifying a worst user of each portion of radio spectrum based on said initial association and said signal to interference and noise ratio; estimating a throughput associated with each said worst user based on said initial association; calculating how many users should be associated with each of said first portion and said second portion of said region of available radio spectrum based on said estimated throughput associated with each said worst user such that throughput of a worst user associated with said first portion of said region of available radio spectrum is substantially equivalent to throughput of a worst user associated with said second portion of said region of available radio spectrum; and adjusting said initial association in accordance with said calculation; and scheduling resource to said user equipment in said first or second portion of said region of available radio spectrum in accordance with said adjusted association. receiving an indication of signal to interference and noise ratio experienced at each user equipment in the first and second portion of the region of available radio spectrum; creating an initial association with one of said first or second portion of said region of available radio spectrum for each user equipment based on said received indication; identifying a worst user of each portion of radio spectrum based on said initial association and said signal to interference and noise ratio; estimating a throughput associated with each said worst user based on said initial association; calculating how many users should be associated with each of said first portion and said second portion of said region of available radio spectrum based on said estimated throughput associated with each said worst user such that throughput of a worst user associated with said first portion of said region of available radio spectrum is substantially equivalent to throughput of a worst user associated with said second portion of said region of available radio spectrum; and adjusting said initial association in accordance with said calculation; and scheduling resource to said user equipment in said first or second portion of said region of available radio spectrum in accordance with said adjusted association.
A method of storing softbits of messages received according to a Hybrid Automatic Repeat Request, HARQ, protocol, the method comprising: providing a first storage and a second storage, wherein the first storage and the second storage include a plurality of memory segments allocatable to HARQ processes; receiving a first message related to a first HARQ process, wherein the first message is protected by a channel code of the HARQ protocol and represented by softbits; storing the softbits of the first message in a first segment of the first storage, wherein the first segment is allocated to the first HARQ process, and wherein the first storage is accessible by a channel decoding unit for decoding the channel code; and characterised by if a number of allocated segments in the first storage, the decoding of which has not yet been completed, exceeds a threshold, changing the allocation for the first HARQ process from the first segment in the first storage to a second segment in the second storage wherein state information is stored for at least each of the HARQ processes to which a segment in the first storage is allocated, wherein changing the allocation to the second storage is further subject to the state information of the first HARQ process being indicative of the first segment being not locked for decoding, the method further comprising searching among the segments of the first storage for state information indicative of the corresponding segment being not locked for decoding, the search yielding the first segment for changing the allocation to the second storage. providing a first storage and a second storage, wherein the first storage and the second storage include a plurality of memory segments allocatable to HARQ processes; receiving a first message related to a first HARQ process, wherein the first message is protected by a channel code of the HARQ protocol and represented by softbits; storing the softbits of the first message in a first segment of the first storage, wherein the first segment is allocated to the first HARQ process, and wherein the first storage is accessible by a channel decoding unit for decoding the channel code; and characterised by if a number of allocated segments in the first storage, the decoding of which has not yet been completed, exceeds a threshold, changing the allocation for the first HARQ process from the first segment in the first storage to a second segment in the second storage wherein state information is stored for at least each of the HARQ processes to which a segment in the first storage is allocated, wherein changing the allocation to the second storage is further subject to the state information of the first HARQ process being indicative of the first segment being not locked for decoding, the method further comprising searching among the segments of the first storage for state information indicative of the corresponding segment being not locked for decoding, the search yielding the first segment for changing the allocation to the second storage.
An implantable electrode, comprising - an elongate electrode body, - at least one lumen (7, 23), which extends in the electrode body over at least a portion of the length thereof, and - a pressure device, by means of which the at least one lumen (7, 23) can be acted on reversibly by a pressure medium, such that the flexibility and/or shape of the electrode body varies depending on the pressure of the pressure medium, characterised in that the electrode body is pre-shaped, at least in portions, in a helix shape, which can be temporarily cancelled by the aforementioned application of pressure to the at least one lumen. - an elongate electrode body, - at least one lumen (7, 23), which extends in the electrode body over at least a portion of the length thereof, and - a pressure device, by means of which the at least one lumen (7, 23) can be acted on reversibly by a pressure medium, such that the flexibility and/or shape of the electrode body varies depending on the pressure of the pressure medium,
Method for etching an assembled block copolymer layer comprising first and second polymer phases (20A-20B), the etching method comprising a first step of etching by a first plasma formed from carbon monoxide or a first gas mixture comprising a fluorocarbon gas and a depolymerising gas, the first etching step being carried out so as to partially etch the first polymer phase and to deposit a carbon layer on the second polymer phase; the etching method being characterised in that it comprises a second step of etching by a second plasma formed from a second gas mixture comprising a depolymerising gas and a gas selected among the carbon oxides and the fluorocarbon gases, the second etching step being carried out so as to etch the first polymer phase and the carbon layer on the second polymer phase.
A controller arranged to control a noise modification system of a vehicle provided with an exhaust system, the controller arranged to select a noise modification action of the noise modification system in dependence upon a selected driving mode of the vehicle, and a determined throttle pedal movement of the vehicle, wherein when the selected driving mode is a first driving mode the noise modification action is selected from a first set of a plurality of actions which comprises a noise enhancement action but not a noise suppression action, characterized in that: when the selected driving mode is a second driving mode the noise modification action is selected from a second set of a plurality of actions which comprises a noise suppression action but not a noise enhancement action, and wherein the controller is operable to transmit a control signal to cause one or more speakers to modify noise in the exhaust system in dependence on said noise modification action.
A method for dynamically adjusting power consumption of a wireless assembly in a communication device, the method comprising: receiving, at a power management unit of the wireless assembly, a first signal indicative of activity of a first wireless interface unit, the first wireless interface unit configured to operate according to a first communication protocol; receiving, at the power management unit of the wireless assembly, a second signal indicative of activity of a second wireless interface unit, the second wireless interface unit configured to operate according to a second communication protocol, wherein the second communication protocol is different than the first communication protocol; determining, based on the first signal, a first voltage level needed to support the activity of the first wireless interface unit; determining, based on the second signal, a second voltage level needed to support the activity of the second wireless interface unit; characterized by: selecting the greater one of the first voltage level and the second voltage level as a supply voltage level needed to support the activity of the first wireless interface unit and the activity of the second wireless interface unit; and adjusting, based on the supply voltage level, a supply voltage supplied to the wireless assembly so that the greater one of the first voltage level and the second voltage level is supplied to both the first wireless interface unit and the second wireless interface unit. receiving, at a power management unit of the wireless assembly, a first signal indicative of activity of a first wireless interface unit, the first wireless interface unit configured to operate according to a first communication protocol; receiving, at the power management unit of the wireless assembly, a second signal indicative of activity of a second wireless interface unit, the second wireless interface unit configured to operate according to a second communication protocol, wherein the second communication protocol is different than the first communication protocol; determining, based on the first signal, a first voltage level needed to support the activity of the first wireless interface unit; determining, based on the second signal, a second voltage level needed to support the activity of the second wireless interface unit; characterized by: selecting the greater one of the first voltage level and the second voltage level as a supply voltage level needed to support the activity of the first wireless interface unit and the activity of the second wireless interface unit; and adjusting, based on the supply voltage level, a supply voltage supplied to the wireless assembly so that the greater one of the first voltage level and the second voltage level is supplied to both the first wireless interface unit and the second wireless interface unit.
Industrial safety shoe for protection against accidents, comprising a shoe sole with a sole outer surface, wherein a) the shoe sole is breathable and at least partly comprises a foamed plastic material so that at least 10 % of the sole outer surface exhibits said foamed plastic material, wherein the foamed plastic material contains foam cells, with a percentage of more than 50 % thereof having an open-cell structure so that the plastic material is gas-permeable, and b) a percentage of more than 50 % of the portions (2, 3, 4, 5, 6), visible from outside, of the industrial safety shoe is breathable and made of at least one open-cell foamed plastic material. a) the shoe sole is breathable and at least partly comprises a foamed plastic material so that at least 10 % of the sole outer surface exhibits said foamed plastic material, wherein the foamed plastic material contains foam cells, with a percentage of more than 50 % thereof having an open-cell structure so that the plastic material is gas-permeable, and b) a percentage of more than 50 % of the portions (2, 3, 4, 5, 6), visible from outside, of the industrial safety shoe is breathable and made of at least one open-cell foamed plastic material.