mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for mitigating a distributed denial of service, DDoS, attack, comprising: receiving, by a server, a response message from an application server; determining a source internet protocol, IP, address associated with the source client based on a request message received from a source client, wherein the request message received from the source client corresponds to the response message received from the application server; identifying, by the server, a plurality of counters associated with the source IP address; the method characterized by the further steps of: identifying (420,450,465), by the server, a response type of the response message; and causing (425,445,460) a value of at least one of the plurality of counters to change based on the response message and the response type. identifying (420,450,465), by the server, a response type of the response message; and causing (425,445,460) a value of at least one of the plurality of counters to change based on the response message and the response type.
A pool cleaning robot comprising: a hollow body, a fluid input, a fluid output, a propulsion unit for moving the pool cleaning robot within a pool, a filtering unit, and a sensing module that comprises a gas pressure sensor, a first space, a second space and a diaphragm; wherein the diaphragm seals the second space and separates the first space from the second space; wherein the diaphragm, via the first space, is fluidly coupled to the filtering unit; wherein the diaphragm is configured to define a gas pressure within the second space as a function of, at least, a fluid pressure within the first space; wherein the gas pressure sensor is located within the second space and is configured to measure the gas pressure within the second space; and wherein the pool cleaning robot is characterized by further comprising a processor that is configured to receive information about the gas pressure within the second space and to determine a cleanliness level of the filtering unit based on the gas pressure within the second space. a hollow body, a fluid input, a fluid output, a propulsion unit for moving the pool cleaning robot within a pool, a filtering unit, and a sensing module that comprises a gas pressure sensor, a first space, a second space and a diaphragm; wherein the diaphragm seals the second space and separates the first space from the second space; wherein the diaphragm, via the first space, is fluidly coupled to the filtering unit; wherein the diaphragm is configured to define a gas pressure within the second space as a function of, at least, a fluid pressure within the first space; wherein the gas pressure sensor is located within the second space and is configured to measure the gas pressure within the second space; and wherein the pool cleaning robot is characterized by further comprising a processor that is configured to receive information about the gas pressure within the second space and to determine a cleanliness level of the filtering unit based on the gas pressure within the second space.
A method for decontaminating a mattress or other effect of bed bugs comprising the steps of: ∘ Placing the mattress or other effect in a hermetically sealable container of a size and shape commensurate with that of the mattress or other effect; ∘ Inserting an appropriate quantity of an oxygen scavenger which in addition to utilising oxygen on activation, generates heat and moisture into the container; ∘ Hermetically sealing the container so as to prevent ingress of oxygen; and ∘ Leaving it for a time sufficient for the oxygen levels to be depleted to less than 0.2% and the bed bugs and their eggs and larvae to be destroyed. ∘ Placing the mattress or other effect in a hermetically sealable container of a size and shape commensurate with that of the mattress or other effect; ∘ Inserting an appropriate quantity of an oxygen scavenger which in addition to utilising oxygen on activation, generates heat and moisture into the container; ∘ Hermetically sealing the container so as to prevent ingress of oxygen; and ∘ Leaving it for a time sufficient for the oxygen levels to be depleted to less than 0.2% and the bed bugs and their eggs and larvae to be destroyed.
A device for detecting mechanical vibrations of human or animal tissues, comprising at least one sensor embedded in a viscoelastic medium, wherein the sensor and the viscoelastic medium form a sensor system (100, 101) and the viscoelastic medium forming a surface for contact with human or animal tissue, the characteristic acoustic impedance of the viscoelastic medium being adapted to human or animal bodies, and the viscoelastic medium having a characteristic acoustic impedance of between 1400 and 2000 kNs/m 3, characterized in that a part of the surface of the viscoelastic medium is covered with an adjacent material, the adjacent material leaving only one side of the viscoelastic medium free for contact with the human or animal tissue, there being no characteristic acoustic impedance between the underside of the medium and the adjacent material, so that a majority of the vibrations are reflected at the interface between the adjacent material and the medium.
A station, comprising: a receiver (3202, 3220) configured to receive, from an access point, a wake-up radio, WUR, frame characterized by the WUR frame containing Message Integrity Code, MIC, that is computed, by the access point, using a temporal key, a unique number, and a transmitter address of the access point; and the station comprising circuitry configured to compute a local MIC using the temporal key and a local number, and authenticate the WUR frame if the computed local MIC matches the MIC of the WUR frame, wherein the unique number is a part of time synchronization function, TSF, timer. a receiver (3202, 3220) configured to receive, from an access point, a wake-up radio, WUR, frame characterized by the WUR frame containing Message Integrity Code, MIC, that is computed, by the access point, using a temporal key, a unique number, and a transmitter address of the access point; and the station comprising circuitry configured to compute a local MIC using the temporal key and a local number, and authenticate the WUR frame if the computed local MIC matches the MIC of the WUR frame, wherein the unique number is a part of time synchronization function, TSF, timer.
An absorbent article comprising a polymeric netting, a liquid impermeable backsheet, and an absorbent core, wherein the polymeric netting comprises polymeric ribbons and polymeric strands, each of the polymeric ribbons and strands having a length and width, wherein the length is the longest dimension and the width is the shortest dimension, wherein the polymeric ribbons have a height-to-width aspect ratio of at least three to one, a major surface that is intermittently bonded to only one polymeric strand, and a height that is greater than a height of the one polymeric strand, and wherein the absorbent core is between the polymeric netting and the backsheet, wherein the polymeric netting is between the absorbent core and the backsheet, or wherein the polymeric netting is within the absorbent core.
An image decoding method for decoding a coded image included in a coded stream, said image decoding method comprising: obtaining an old quantization scaling matrix which is a decoded quantization scaling matrix and is used for decoding a new quantization scaling matrix; obtaining, from the coded stream, an update parameter indicating an amount of change in the new quantization scaling matrix with respect to the old quantization scaling matrix; decoding the new quantization scaling matrix using the old quantization scaling matrix obtained in said obtaining of an old quantization scaling matrix and the update parameter obtained in said obtaining of an update parameter; and decoding the coded image using the new quantization scaling matrix decoded in said decoding of the new quantization scaling matrix, wherein in said obtaining of an update parameter, a first update parameter and a second update parameter are obtained from the coded stream, the first update parameter indicating a scale factor of the new quantization scaling matrix with respect to the old quantization scaling matrix, and the second update parameter indicating a degree of variation in values constituting the new quantization scaling matrix, and in said decoding of the new quantization scaling matrix, a prediction matrix is computed using the old quantization scaling matrix, the first update parameter, and the second update parameter, and the new quantization scaling matrix is decoded using the computed prediction matrix, the prediction matrix resulting from predicting the new quantization scaling matrix. obtaining an old quantization scaling matrix which is a decoded quantization scaling matrix and is used for decoding a new quantization scaling matrix; obtaining, from the coded stream, an update parameter indicating an amount of change in the new quantization scaling matrix with respect to the old quantization scaling matrix; decoding the new quantization scaling matrix using the old quantization scaling matrix obtained in said obtaining of an old quantization scaling matrix and the update parameter obtained in said obtaining of an update parameter; and decoding the coded image using the new quantization scaling matrix decoded in said decoding of the new quantization scaling matrix, wherein in said obtaining of an update parameter, a first update parameter and a second update parameter are obtained from the coded stream, the first update parameter indicating a scale factor of the new quantization scaling matrix with respect to the old quantization scaling matrix, and the second update parameter indicating a degree of variation in values constituting the new quantization scaling matrix, and in said decoding of the new quantization scaling matrix, a prediction matrix is computed using the old quantization scaling matrix, the first update parameter, and the second update parameter, and the new quantization scaling matrix is decoded using the computed prediction matrix, the prediction matrix resulting from predicting the new quantization scaling matrix.
Fluid delivery device having a primary pump and a main pump fluidically connected to the primary pump, wherein the primary pump is drivable by a primary pump input shaft and the main pump is drivable by a main pump input shaft and the primary pump input shaft and the main pump input shaft are mechanically coupled to a common drive shaft of the fluid delivery device, wherein the main pump is designed as an at least partially compensated internal gear pump, characterized in that the primary pump is designed as an at least partially non-compensated internal gear pump and has a higher limit speed and a larger pump volume than the main pump, and that a suction chamber of the primary pump extends over a larger angular range (α) than a suction chamber of the main pump and/or a pressure chamber of the primary pump extends over at least the same angular range as a pressure chamber of the main pump.
A protective connector comprising: a core assembly structure (55, 64); mating pins; and characterized in that it further comprises: a mating coupling structure, wherein circuitry is mounted within the core assembly structure (55, 64), wherein the mating coupling structure substantially encases the core assembly structure (55, 64) and mates with another connector such that the mating pins of the protective connector are electrically coupled to pins of the other connector, and wherein the mating coupling structure comprises: an outer housing; and an align, twist, and locking piece, wherein the outer housing fits over the core assembly structure (55, 64) and is mechanically coupled to the align, twist, and locking piece, wherein the outer housing and the align, twist, and locking piece freely rotate around to the core assembly structure (55, 64) so that the mating coupling structure is mechanically free-moving with respect to the core assembly structure (55, 64) such that forces applied to the mating coupling structure to mate the protective connector to the other connector are not applied to the circuitry within the core assembly structure (55, 64). a core assembly structure (55, 64); mating pins; and characterized in that it further comprises: a mating coupling structure, wherein circuitry is mounted within the core assembly structure (55, 64), wherein the mating coupling structure substantially encases the core assembly structure (55, 64) and mates with another connector such that the mating pins of the protective connector are electrically coupled to pins of the other connector, and wherein the mating coupling structure comprises: an outer housing; and an align, twist, and locking piece, wherein the outer housing fits over the core assembly structure (55, 64) and is mechanically coupled to the align, twist, and locking piece, wherein the outer housing and the align, twist, and locking piece freely rotate around to the core assembly structure (55, 64) so that the mating coupling structure is mechanically free-moving with respect to the core assembly structure (55, 64) such that forces applied to the mating coupling structure to mate the protective connector to the other connector are not applied to the circuitry within the core assembly structure (55, 64). an outer housing; and an align, twist, and locking piece, wherein the outer housing fits over the core assembly structure (55, 64) and is mechanically coupled to the align, twist, and locking piece, wherein the outer housing and the align, twist, and locking piece freely rotate around to the core assembly structure (55, 64) so that the mating coupling structure is mechanically free-moving with respect to the core assembly structure (55, 64) such that forces applied to the mating coupling structure to mate the protective connector to the other connector are not applied to the circuitry within the core assembly structure (55, 64).
A protective helmet comprising: - an outer shell; - an impact absorbing liner, positioned inside to the outer shell and shaped so as to correspond to the shape of the wearer's head; - a comfort liner positioned at the inner surface of the impact absorbing liner, so as to be in contact with the wearer's head; the comfort liner being attached to the outer shell and/or to the impact absorbing liner by means of at least one connecting means; wherein the comfort liner is provided with at least one elastic joint which is positioned in proximity of said at least one connecting means for joining the connecting means to the comfort liner characterized by said at least one connecting means being indirectly connected to said at least one elastic joint and the comfort liner comprising a rigid or semi-rigid supporting flap (28, 29) connected to the at least one elastic joint, the connecting means being provided on said supporting flap (28, 29); said at least one elastic joint being interposed between said at least one connecting means and a peripheral portion of the comfort liner. - an outer shell; - an impact absorbing liner, positioned inside to the outer shell and shaped so as to correspond to the shape of the wearer's head; - a comfort liner positioned at the inner surface of the impact absorbing liner, so as to be in contact with the wearer's head; the comfort liner being attached to the outer shell and/or to the impact absorbing liner by means of at least one connecting means; wherein the comfort liner is provided with at least one elastic joint which is positioned in proximity of said at least one connecting means for joining the connecting means to the comfort liner characterized by said at least one connecting means being indirectly connected to said at least one elastic joint and the comfort liner comprising a rigid or semi-rigid supporting flap (28, 29) connected to the at least one elastic joint, the connecting means being provided on said supporting flap (28, 29); said at least one elastic joint being interposed between said at least one connecting means and a peripheral portion of the comfort liner.
Roof panel manufactured as a plastics part for inclined roof surfaces, which panel supports a functional unit to be arranged in the roof surface and is widened at its edge by means of a predominantly plastically deformable strip which in contrast is scarcely elastically deformable or is not elastically deformable at all and is made of a planar material and projects into a groove in the edge region of the plastics part and is form-fittingly held therein against movement outwards, only the eaves-side edge of the roof panel being provided in this way with a strip made of predominantly plastically deformable planar material, and the groove (1.1) which encloses the edge region (2.1) of the strip in the roof panel being formed, in cross-sectional view, so as to have groove flanks inclined downwards towards the groove opening, characterised in that a) the roof panel is produced as a plastics injection-moulded part, in that b) the edge region (2.1) of the strip, which region projects into the groove (1.1) in the eaves-side edge region of the roof panel, is perforated, in that the plastics material of the roof panel extends into these perforations, and in that c) the strip, in the longitudinal direction thereof, projects beyond the width of the roof panel at both ends. a) the roof panel is produced as a plastics injection-moulded part, in that b) the edge region (2.1) of the strip, which region projects into the groove (1.1) in the eaves-side edge region of the roof panel, is perforated, in that the plastics material of the roof panel extends into these perforations, and in that c) the strip, in the longitudinal direction thereof, projects beyond the width of the roof panel at both ends.
Expanded allogeneic adipose tissue-derived stromal stem cells for use in a method of treating a refractory complex perianal fistula in a patient having Crohn's disease, wherein: (i) the fistula comprises multiple tracts; (ii) a dose of 120 million cells is administered to the patient in a single procedure wherein each fistula tract receives at least a portion of this dose and wherein approximately half of the dose is injected into the tissue surrounding the internal opening or openings and the other half is injected into the fistula walls all along the fistula tracts; and (iii) the therapy induces clinical remission within 24 weeks. (i) the fistula comprises multiple tracts; (ii) a dose of 120 million cells is administered to the patient in a single procedure wherein each fistula tract receives at least a portion of this dose and wherein approximately half of the dose is injected into the tissue surrounding the internal opening or openings and the other half is injected into the fistula walls all along the fistula tracts; and (iii) the therapy induces clinical remission within 24 weeks.
A time synchronization method, wherein the method is applied to a PLC network, the PLC network comprises a head end node and at least one tail end node connected to the head end node, and the method comprises: generating, by the head end node, data about voltage zero-crossing points based on reference time, wherein the data about the voltage zero-crossing points comprises zero-crossing time points of the voltage zero-crossing points; and when a first timing point arrives, sending, by the head end node, first information to the tail end node, wherein the first information comprises a timestamp of a first zero-crossing point, the timestamp of the first zero-crossing point is a zero-crossing time point in the zero-crossing time points of the voltage zero-crossing points that has a smallest time interval with the first timing point, and the timestamp of the first zero-crossing point is used by the tail end node to determine a zero-crossing time point of a second zero-crossing point. generating, by the head end node, data about voltage zero-crossing points based on reference time, wherein the data about the voltage zero-crossing points comprises zero-crossing time points of the voltage zero-crossing points; and when a first timing point arrives, sending, by the head end node, first information to the tail end node, wherein the first information comprises a timestamp of a first zero-crossing point, the timestamp of the first zero-crossing point is a zero-crossing time point in the zero-crossing time points of the voltage zero-crossing points that has a smallest time interval with the first timing point, and the timestamp of the first zero-crossing point is used by the tail end node to determine a zero-crossing time point of a second zero-crossing point.
An air conditioning pack management system for controlling distribution of a predetermined amount of conditioned air from a system comprising two or more air conditioning packs (2,3), the pack management system comprising a management unit arranged to apportion the predetermined amount of conditioned air to be provided by one or more of the two or more packs based on pre-selected metrics; characterised in that the pre-selected metrics include the respective operating efficiencies of the packs, and wherein, depending on the predetermined amount of conditioned air, the pack management system is configured to apportion the predetermined amount of conditioned air unequally between the two or more packs such that one provides a greater proportion of the predetermined amount of conditioned air than the other/another air conditioning pack so to maximize the efficiency of the two or more air conditioning packs.
A safety system for a vehicle, in particular a rail vehicle, comprising at least one on-board breathalyser connected to a control centre of the vehicle to condition the start-up of the vehicle to an ethyl test result, the control centre being configured to authorise the start-up of the vehicle in the case where an ethyl test has a negative result and block the start-up in the case where the ethyl test has a positive result, characterised in that the safety system comprises at least one external breathalyser, and the control centre comprises means for authorising the start-up of the vehicle in the case where two successive ethyl tests have a positive result, but one ethyl test performed by the external breathalyser has a negative result.
A feed line for adding an infusion solution to a fluid flowing in an extracorporeal blood circuit, the feed line comprising a pressure relief valve or a non-return valve, characterized in that the pressure relief valve is configured to allow a flow therethrough only when a sufficiently high pressure has been set upstream thereof, so that, even when the infusion solution is continuously conveyed by means of a pump along the feed line in the direction of the pressure relief valve, a pulsating stream of infusion solution is generated by means of the pressure relief valve.