mhurhangee/ep-ind-claims huggingface dataset:
A packet forwarding method, wherein the method comprises: when a current to-be-sent target packet is a following packet in a burst sequence, obtaining (303, 401) port information of an egress port used to send the burst sequence, wherein the port information of the egress port is determined and stored when a header packet in the burst sequence is sent, and the burst sequence is a sequence comprising a plurality of packets that belong to a same service flow, and the following packet follows the header packet; and sending the target packet through the egress port corresponding to the obtained port information; characterized in that the obtaining port information of an egress port used to send the burst sequence comprises: when the target packet comprises a feature field, using the feature field as a burst identifier of the burst sequence, and obtaining, from a stored correspondence between a burst identifier and port information, port information corresponding to the burst identifier, wherein the feature field is used to uniquely identify the burst sequence to which the packet in which the feature field is located belongs; and determining the obtained port information as the port information of the egress port used to send the burst sequence. when a current to-be-sent target packet is a following packet in a burst sequence, obtaining (303, 401) port information of an egress port used to send the burst sequence, wherein the port information of the egress port is determined and stored when a header packet in the burst sequence is sent, and the burst sequence is a sequence comprising a plurality of packets that belong to a same service flow, and the following packet follows the header packet; and sending the target packet through the egress port corresponding to the obtained port information; characterized in that the obtaining port information of an egress port used to send the burst sequence comprises: when the target packet comprises a feature field, using the feature field as a burst identifier of the burst sequence, and obtaining, from a stored correspondence between a burst identifier and port information, port information corresponding to the burst identifier, wherein the feature field is used to uniquely identify the burst sequence to which the packet in which the feature field is located belongs; and determining the obtained port information as the port information of the egress port used to send the burst sequence. when the target packet comprises a feature field, using the feature field as a burst identifier of the burst sequence, and obtaining, from a stored correspondence between a burst identifier and port information, port information corresponding to the burst identifier, wherein the feature field is used to uniquely identify the burst sequence to which the packet in which the feature field is located belongs; and determining the obtained port information as the port information of the egress port used to send the burst sequence.
A voice traffic gateway (10, 30, 40) comprising: a voice traffic input (12, 32) arranged to receive voice traffic from a first traffic domain of a communications network, the voice traffic comprising voice messages and signalling messages; a voice traffic output (14, 32) arranged to deliver output voice messages and output signalling messages to a second, different traffic domain of the communications network; a first domain router (16, 44, 46) coupled to the voice traffic input and arranged to route voice messages received from the first traffic domain to a non-secure warning tone application apparatus (20, 50, 54) and to route signalling messages received from the first traffic domain to a signalling filter (18, 48, 52), wherein the non-secure warning tone application apparatus is arranged to apply a non-secure warning tone to each voice message that it receives to form a respective output voice message, and the signalling filter is arranged to compare a feature of each signalling message that it receives with a reference feature and is further arranged to pass a said signalling message as an output signalling message if said feature is the same as the reference feature and to block a said signalling message if said feature is not the same as the reference feature. a voice traffic input (12, 32) arranged to receive voice traffic from a first traffic domain of a communications network, the voice traffic comprising voice messages and signalling messages; a voice traffic output (14, 32) arranged to deliver output voice messages and output signalling messages to a second, different traffic domain of the communications network; a first domain router (16, 44, 46) coupled to the voice traffic input and arranged to route voice messages received from the first traffic domain to a non-secure warning tone application apparatus (20, 50, 54) and to route signalling messages received from the first traffic domain to a signalling filter (18, 48, 52), wherein the non-secure warning tone application apparatus is arranged to apply a non-secure warning tone to each voice message that it receives to form a respective output voice message, and the signalling filter is arranged to compare a feature of each signalling message that it receives with a reference feature and is further arranged to pass a said signalling message as an output signalling message if said feature is the same as the reference feature and to block a said signalling message if said feature is not the same as the reference feature.
Method for measuring radio interference levels in a particular measurement frequency range by cyclically sweeping through the measurement frequency range in a preliminary measurement and detecting a measurement level of the signal to be measured at each measurement frequency and in the event of identifying a radio interference level in the measured measurement levels interrupting the preliminary measurement with a following measurement in which the identified radio interference level is measured more precisely with respect to its time characteristic, wherein the identification of each radio interference level is carried out asynchronously to the cyclical sweep through and measurement of the measurement levels of the measurement frequency range, wherein the identification of the radio interference level includes a final determination of the associated mean frequency, characterised in that the mean frequency of the measurement frequency range of the following measurement associated with the particular identified radio interference level is adjusted to the mean frequency of the radio interference level determined in the preceding preliminary measurement.
A driving control device comprising: first side object detecting means (6L, 6R) for detecting a side object present to the side of a vehicle as well as towards the rear of the vehicle; control means for activating a control for suppressing sideways movement of the vehicle towards the side object, when the first side object detecting means (6L, 6R) detects the side object; and entry start determination means for determining whether or not the vehicle has started entering an adjacent lane in order to change lanes; characterized in that the driving control device further comprises activation suppressing means for suppressing the activation of the control for suppressing sideways movement of the vehicle by the control means, when the entry start determination means determines that the vehicle has started entering the adjacent lane, even if the first side object detecting means (6L, 6R) detects the side object in the target adjacent lane under a condition where the vehicle has started entering the adjacent lane in the absence of a side object. first side object detecting means (6L, 6R) for detecting a side object present to the side of a vehicle as well as towards the rear of the vehicle; control means for activating a control for suppressing sideways movement of the vehicle towards the side object, when the first side object detecting means (6L, 6R) detects the side object; and entry start determination means for determining whether or not the vehicle has started entering an adjacent lane in order to change lanes; characterized in that the driving control device further comprises activation suppressing means for suppressing the activation of the control for suppressing sideways movement of the vehicle by the control means, when the entry start determination means determines that the vehicle has started entering the adjacent lane, even if the first side object detecting means (6L, 6R) detects the side object in the target adjacent lane under a condition where the vehicle has started entering the adjacent lane in the absence of a side object.
A sound producing apparatus, comprising: a sound producing device, disposed at a sound producing location (L SP), configured to produce a plurality of air pulses according to a driving signal (d( t)); characterised by further comprising a driving circuit, configured to receive an input audio signal (A( t)) and a channel-shaping signal (g( t)), configured to generate the driving signal (d( t)) according to the input audio signal (A( t)) and the channel-shaping signal (g( t)), wherein the channel-shaping signal (g( t)) is related to a channel impulse response (h S (t)) of a channel (h) between the sound producing location (L SP) and a sound constructing location (L SC); and a signal processing circuit, configured to generate the channel-shaping signal (g( t)) according to the channel impulse response (h S ( t)); wherein the plurality of air pulses is emitted from the sound producing location (L SP), propagates through an environment, such that a sound pressure level envelope corresponding to the input audio signal (A( t)) is constructed at the sound construction location (L SC); wherein the sound construction location (L SC) is different from the sound production location (L SP). a sound producing device, disposed at a sound producing location (L SP), configured to produce a plurality of air pulses according to a driving signal (d( t)); characterised by further comprising a driving circuit, configured to receive an input audio signal (A( t)) and a channel-shaping signal (g( t)), configured to generate the driving signal (d( t)) according to the input audio signal (A( t)) and the channel-shaping signal (g( t)), wherein the channel-shaping signal (g( t)) is related to a channel impulse response (h S (t)) of a channel (h) between the sound producing location (L SP) and a sound constructing location (L SC); and a signal processing circuit, configured to generate the channel-shaping signal (g( t)) according to the channel impulse response (h S ( t)); wherein the plurality of air pulses is emitted from the sound producing location (L SP), propagates through an environment, such that a sound pressure level envelope corresponding to the input audio signal (A( t)) is constructed at the sound construction location (L SC); wherein the sound construction location (L SC) is different from the sound production location (L SP).
A turntable mechanism, configured to generate a negative pressure towards a surface of an adsorbed object, comprising a flat plate and a rotating device for driving the flat plate to rotate, characterized in that the flat plate is adapted to rotate in order to generate the negative pressure by rotating a fluid film through a viscous effect between a lower surface of the flat plate and the surface of the adsorbed object, whereby the flat plate and the adsorbed object adhere together by an adsorption force generated by the negative pressure and a gap is kept between the lower surface of the flat plate and the surface of the adsorbed object.
A system for implementing an immunity mode in an electronic device, comprising: a processor module that executes processing tasks of said electronic device, said processor module including processor information for executing said processing tasks; a protected memory coupled to said electronic device for storing electronic information in a manner that is more secure than if stored in said processor module; and an immunity manager that performs one or more protection procedures to store at least a portion of said processor information into said protected memory in response to an immunity mode trigger, characterised in that said immunity manager determines a latency level for said immunity mode, said latency level corresponding to a protection level desired during said immunity mode, said latency level also corresponding to an amount of processing disruption that is acceptable during said immunity mode.
A device for testing a beamforming processor comprising plural output ports (111, 112), the device comprising: at least one power determination unit electrically connectable to the beamforming processor and configured to determine an output power of the plural output ports (111, 112) of the beamforming processor; and a controller connected by a respective wire to the at least one power determination unit and configured to: identify whether the output power received through the respective wire from the at least one power determination unit is within a predetermined range, and determine that the beamforming processor is normal, in case that the output power is within the predetermined range, wherein the beamforming processor is connectable to an antenna comprising plural antenna elements (301, 302) for performing a beamforming. at least one power determination unit electrically connectable to the beamforming processor and configured to determine an output power of the plural output ports (111, 112) of the beamforming processor; and a controller connected by a respective wire to the at least one power determination unit and configured to: identify whether the output power received through the respective wire from the at least one power determination unit is within a predetermined range, and determine that the beamforming processor is normal, in case that the output power is within the predetermined range, wherein the beamforming processor is connectable to an antenna comprising plural antenna elements (301, 302) for performing a beamforming.
A lamina (10, 100, 200, 300) including a working surface and an opposing bottom surface extending between a first major surface and a second major surface, as well as a first end surface and an opposing second end surface, said lamina comprising: a plurality of side grooves (30a- 30d, 80a-80e) wherein each side groove includes a first side groove surface (32a-32c, 82a-82d) and a second side groove surface (34b-34d, 84b-84e) that intersect at a side groove vertex (33b-33d, 41b, 41c); and wherein the side groove vertices of each of two adjacent side grooves are nonparallel to each other by an amount greater than nominally parallel to less than 1 ° and a plurality of full cube corner elements (α, β, α', β') formed in a repeating pattern between adjacent side groove vertices (33a-33d, 41a, 41b, 41c) and each of which includes a first side groove surface, a second side groove surface, and a primary groove face forming three dihedral angles; wherein the plurality of full cube corner elements have three dihedral angle errors that are different from each other, each having a magnitude of between 1 arc minute and 60 arc minutes. a plurality of side grooves (30a- 30d, 80a-80e) wherein each side groove includes a first side groove surface (32a-32c, 82a-82d) and a second side groove surface (34b-34d, 84b-84e) that intersect at a side groove vertex (33b-33d, 41b, 41c); and wherein the side groove vertices of each of two adjacent side grooves are nonparallel to each other by an amount greater than nominally parallel to less than 1 ° and a plurality of full cube corner elements (α, β, α', β') formed in a repeating pattern between adjacent side groove vertices (33a-33d, 41a, 41b, 41c) and each of which includes a first side groove surface, a second side groove surface, and a primary groove face forming three dihedral angles; wherein the plurality of full cube corner elements have three dihedral angle errors that are different from each other, each having a magnitude of between 1 arc minute and 60 arc minutes.
A kit for plantar plate repair, comprising: an implant assembly comprising an implant, an implant inserter (502, 510), a first suture shuttle, and a second suture shuttle, wherein the implant comprises a dorsal head, a body extending from the head, a first longitudinal cannulation, a second longitudinal cannulation beside the first longitudinal cannulation, and a septum, wherein the implant inserter (502, 510) is coupled to the dorsal head of the implant, and wherein the first suture shuttle extends within the first longitudinal cannulation, wherein the second suture shuttle extends within the second longitudinal cannulation, wherein the first and second suture shuttles (506, 508) protrude from a plantar end of the implant opposite the dorsal head; characterized in that the first longitudinal cannulation and the second longitudinal cannulation extend through the implant and are separated by the septum which extends the full length of the implant. an implant assembly comprising an implant, an implant inserter (502, 510), a first suture shuttle, and a second suture shuttle, wherein the implant comprises a dorsal head, a body extending from the head, a first longitudinal cannulation, a second longitudinal cannulation beside the first longitudinal cannulation, and a septum, wherein the implant inserter (502, 510) is coupled to the dorsal head of the implant, and wherein the first suture shuttle extends within the first longitudinal cannulation, wherein the second suture shuttle extends within the second longitudinal cannulation, wherein the first and second suture shuttles (506, 508) protrude from a plantar end of the implant opposite the dorsal head; characterized in that the first longitudinal cannulation and the second longitudinal cannulation extend through the implant and are separated by the septum which extends the full length of the implant.
A line converger comprising at least one conveyor belt with a conveying direction, and two movable guide rails, which are, converging towards one another, adjustable for defining a gap at a downstream end of the guide rails, and which each have a guide at their downstream ends for aligning a package along the conveying direction, characterized in that the line converger comprises a control unit and a label dispenser, which are configured to apply labels to the package while said package is still located fully or partly on the conveyor belt of the line converger and is at least partially guided by the guides, wherein a sensor is provided and connected to the control unit so as to detect a leading edge of the package.
Tool for selectively sectioning the transverse processes of the cervical vertebrae comprising a first arm and a second arm, each arm (10, 20) comprising a handle (11, 21) and a beak (13, 23) aligned along a main extension direction of the tool, wherein the first arm and the second arm are rotatably coupled one to the other by means of a pin in order to rotate in a rotation plane (ρ) between a first configuration in which the beak of the first arm is in contact with the beak of the second arm and a second configuration in which the beak of the first arm is spaced from the beak of the second arm, wherein the beak of the first arm comprises a cutting portion, said cutting portion having a wedge-shaped section in a section plane (o) transversal to the rotation plane (ρ) of the arms (10, 20), and the beak of the second arm comprises an abutment portion having a receptacle configured to receive a cutting end of the cutting portion when the beak of the first arm is in contact with the beak of the second arm in the first configuration, characterized in that the receptacle of the abutment portion comprises a through slot configured to receive the cutting end of the cutting portion for its entire dimension of length. wherein the beak of the first arm comprises a cutting portion, said cutting portion having a wedge-shaped section in a section plane (o) transversal to the rotation plane (ρ) of the arms (10, 20), and the beak of the second arm comprises an abutment portion having a receptacle configured to receive a cutting end of the cutting portion when the beak of the first arm is in contact with the beak of the second arm in the first configuration, characterized in that the receptacle of the abutment portion comprises a through slot configured to receive the cutting end of the cutting portion for its entire dimension of length.
A process for producing a dispersion of white fine particles, comprising the following steps 1 and 2: Step 1: mixing titanium oxide and a polymer dispersant at a pH value that is not less than an acid dissociation exponent (pKa) of at least a part of an acid component of the polymer dispersant to thereby obtain a titanium oxide dispersion, in which an isoelectric point of the titanium oxide and the acid dissociation exponent (pKa) of the polymer dispersant satisfy a relationship represented by the formula: A − B ≥ 0, the polymer dispersant comprises a constitutional unit derived from a hydrophobic monomer, and a volume median particle size (D 50) of particles in the titanium oxide dispersion is not less than 150 nm and not more than 500 nm; and Step 2: adding a polymerizable monomer to the titanium oxide dispersion obtained in the step 1 to subject the polymerizable monomer to polymerization reaction, to encapsulate the titanium oxide with a polymer component, thereby obtaining the dispersion of the white fine particles; wherein a mass ratio of the titanium oxide to the polymer component [titanium oxide/polymer component] is not less than 20/80 and not more than 50/50. Step 1: mixing titanium oxide and a polymer dispersant at a pH value that is not less than an acid dissociation exponent (pKa) of at least a part of an acid component of the polymer dispersant to thereby obtain a titanium oxide dispersion, in which an isoelectric point of the titanium oxide and the acid dissociation exponent (pKa) of the polymer dispersant satisfy a relationship represented by the formula: A − B ≥ 0, the polymer dispersant comprises a constitutional unit derived from a hydrophobic monomer, and a volume median particle size (D 50) of particles in the titanium oxide dispersion is not less than 150 nm and not more than 500 nm; and in which an isoelectric point of the titanium oxide and the acid dissociation exponent (pKa) of the polymer dispersant satisfy a relationship represented by the formula: A − B ≥ 0, the polymer dispersant comprises a constitutional unit derived from a hydrophobic monomer, and a volume median particle size (D 50) of particles in the titanium oxide dispersion is not less than 150 nm and not more than 500 nm; and Step 2: adding a polymerizable monomer to the titanium oxide dispersion obtained in the step 1 to subject the polymerizable monomer to polymerization reaction, to encapsulate the titanium oxide with a polymer component, thereby obtaining the dispersion of the white fine particles; wherein a mass ratio of the titanium oxide to the polymer component [titanium oxide/polymer component] is not less than 20/80 and not more than 50/50.