mhurhangee/ep-ind-claims huggingface dataset:
An optical source (10, 54) for guiding light to a target of a patient, the optical source comprising: at least one light source (12, 56) configured to emit red light and infrared light, the at least one light source (12, 56) being embedded within a flexible light-conducting sheet (18, 58); a flexible photodistributor spaced from the at least one light source (12, 56), the photodistributor including a light-emitting surface and at least one light-receiving surface optically coupled to the light-conducting sheet (18, 58), the photodistributor being configured to discharge at least a portion of the emitted red light and at least a portion of the emitted infrared light into a target; and characterized by a housing configured to encase the at least one light source (12, 56), the photodistributor, and the light-conducting sheet (18, 58), the housing defining an opening (48, 62), the housing being further configured to reflect light emitted from the at least one light source (12, 56). at least one light source (12, 56) configured to emit red light and infrared light, the at least one light source (12, 56) being embedded within a flexible light-conducting sheet (18, 58); a flexible photodistributor spaced from the at least one light source (12, 56), the photodistributor including a light-emitting surface and at least one light-receiving surface optically coupled to the light-conducting sheet (18, 58), the photodistributor being configured to discharge at least a portion of the emitted red light and at least a portion of the emitted infrared light into a target; and characterized by a housing configured to encase the at least one light source (12, 56), the photodistributor, and the light-conducting sheet (18, 58), the housing defining an opening (48, 62), the housing being further configured to reflect light emitted from the at least one light source (12, 56).
A removable memory card receptacle for receiving a plurality of different types of removable memory cards (70,72) directly inserted into the receptacle, comprising: a housing comprising a pin coupled to a control circuit, said pin useable for both card insertion and card type detection; an insertion switch coupled to the control circuit the insertion switch configured to detect insertion of the removable memory card, the control circuit comprising the software further configured to receive an insertion signal from the insertion switch to detect when the removable memory card is inserted into the removable memory card receptacle; a type switch coupled to the control circuit and characterised in that the type switch configured to discriminate between different types of removable memory cards based on differing form factors; a control system operatively coupled to the pin; and the control circuit comprising software configured to receive a type signal from the type switch to detect a type of removable memory card inserted into a removable memory card receptacle, wherein said type includes a Secure Digital, SD protocol type of removable memory card or a Universal Flash Storage, UFS protocol type of removable memory card; and wherein the control circuit is configured to generate a detection signal based on the insertion and type signals and provide a detection signal to the pin; wherein the control system is configured to: communicate with the inserted removable memory card using an SD protocol if the detection signal indicates the type of the inserted removable memory card is SD; and communicate with the inserted removable memory card using a UFS protocol if the detection signal indicates the type of the inserted removable memory card is UFS. a housing comprising a pin coupled to a control circuit, said pin useable for both card insertion and card type detection; an insertion switch coupled to the control circuit the insertion switch configured to detect insertion of the removable memory card, the control circuit comprising the software further configured to receive an insertion signal from the insertion switch to detect when the removable memory card is inserted into the removable memory card receptacle; a type switch coupled to the control circuit and characterised in that the type switch configured to discriminate between different types of removable memory cards based on differing form factors; communicate with the inserted removable memory card using an SD protocol if the detection signal indicates the type of the inserted removable memory card is SD; and communicate with the inserted removable memory card using a UFS protocol if the detection signal indicates the type of the inserted removable memory card is UFS.
A system comprising: a plurality of host nodes, each of which comprising a container environment; an application instance proxy executing in each of the container environments; a plurality of switches (108, 110) configured to interconnect the plurality of host nodes; a fabric controller configured to manage the plurality of switches and to implement policies through virtual fabric edge instances executing on each host node; wherein the virtual fabric edge instances are configured to route application traffic from application instances in the container environments to one or more of the switches; wherein, at a given host node, the application instance proxy executing in the container environment is configured to query the virtual fabric edge instance of the given host node for data regarding application functions; wherein the virtual fabric edge instance is configured to request a response to the query from the fabric controller; wherein the fabric controller is configured to transmit a response with the data regarding the application functions to the virtual fabric edge instance; and wherein the virtual fabric instance is configured to cache the response. a plurality of host nodes, each of which comprising a container environment; an application instance proxy executing in each of the container environments; a plurality of switches (108, 110) configured to interconnect the plurality of host nodes; a fabric controller configured to manage the plurality of switches and to implement policies through virtual fabric edge instances executing on each host node; wherein the virtual fabric edge instances are configured to route application traffic from application instances in the container environments to one or more of the switches; wherein, at a given host node, the application instance proxy executing in the container environment is configured to query the virtual fabric edge instance of the given host node for data regarding application functions; wherein the virtual fabric edge instance is configured to request a response to the query from the fabric controller; wherein the fabric controller is configured to transmit a response with the data regarding the application functions to the virtual fabric edge instance; and wherein the virtual fabric instance is configured to cache the response.
A method for use in a user equipment, UE, of managing a listen-before-talk, LBT, contention window size, the method comprising: transmitting a first burst of uplink subframes after a first LBT procedure, the LBT procedure performed using an LBT contention window size; determining a reference subframe based on the first burst of uplink subframes, the reference subframe associated with a reference hybrid automatic repeat request, HARQ, process identifier; receiving scheduling for a second burst of uplink subframes, the scheduling comprising, for each subframe of the second burst of uplink subframes, an associated HARQ process identifier and an associated new data indicator, NDI; when the UE determines the HARQ process identifier associated with at least one of the subframes of the second burst of uplink subframes matches the reference HARQ process identifier and the associated NDI indicates new data, resetting the LBT contention window size to a minimum value; when the UE determines the HARQ process identifier associated with at least one of the subframes of the second burst of uplink subframes matches the reference HARQ process identifier and the associated NDI indicates a retransmission, incrementing the LBT contention window size; and performing a second LBT procedure using the contention window size; characterized in that resetting the LBT contention window size to a minimum value comprises resetting LBT contention window sizes associated with all priority classes used by the UE. transmitting a first burst of uplink subframes after a first LBT procedure, the LBT procedure performed using an LBT contention window size; determining a reference subframe based on the first burst of uplink subframes, the reference subframe associated with a reference hybrid automatic repeat request, HARQ, process identifier; receiving scheduling for a second burst of uplink subframes, the scheduling comprising, for each subframe of the second burst of uplink subframes, an associated HARQ process identifier and an associated new data indicator, NDI; when the UE determines the HARQ process identifier associated with at least one of the subframes of the second burst of uplink subframes matches the reference HARQ process identifier and the associated NDI indicates new data, resetting the LBT contention window size to a minimum value; when the UE determines the HARQ process identifier associated with at least one of the subframes of the second burst of uplink subframes matches the reference HARQ process identifier and the associated NDI indicates a retransmission, incrementing the LBT contention window size; and performing a second LBT procedure using the contention window size;
A process for polymerizing olefin monomer(s) in a gas solids olefin polymerization reactor comprising: - a top zone; - a middle zone, which comprises a top end in direct contact with said top zone and which is located below said top zone, the middle zone having a generally cylindrical shape; and - a bottom zone, which is in direct contact with a bottom end of the middle zone and which is located below the middle zone; comprising the following steps: a) introducing a first stream of fluidization gas into the bottom zone; b) polymerizing olefin monomer(s) in the presence of a polymerization catalyst in a dense phase formed by particles of a polymer of the olefin monomer(s) suspended in an upwards flowing stream of the fluidization gas in the middle zone; c) withdrawing a second stream comprising the fluidization gas from the top zone; d) introducing the second stream into a cooler; e) withdrawing the cooled second stream from the cooler; and f) splitting the cooled second stream into a cooled third stream and the first stream; and g) introducing the cooled third stream through one or more feeding ports in a feeding area of the middle zone at the dense phase in the middle zone of the gas solids olefin polymerization reactor wherein the feeding area of the middle zone is located on the surface of the middle zone between the top end and 50% of the total height of the middle zone, whereas the bottom end corresponds to 0% and the top end corresponds to 100% of the total height of the middle zone. - a top zone; - a middle zone, which comprises a top end in direct contact with said top zone and which is located below said top zone, the middle zone having a generally cylindrical shape; and - a bottom zone, which is in direct contact with a bottom end of the middle zone and which is located below the middle zone; a) introducing a first stream of fluidization gas into the bottom zone; b) polymerizing olefin monomer(s) in the presence of a polymerization catalyst in a dense phase formed by particles of a polymer of the olefin monomer(s) suspended in an upwards flowing stream of the fluidization gas in the middle zone; c) withdrawing a second stream comprising the fluidization gas from the top zone; d) introducing the second stream into a cooler; e) withdrawing the cooled second stream from the cooler; and f) splitting the cooled second stream into a cooled third stream and the first stream; and g) introducing the cooled third stream through one or more feeding ports in a feeding area of the middle zone at the dense phase in the middle zone of the gas solids olefin polymerization reactor
A method of performing interference cancellation in a wireless communications device having a transmitter and a receiver, the method comprising: receiving a reference signal representative of an interfering signal transmitted by the transmitter; responsive to the reference signal, selecting a target interference type from a plurality of interference types affecting an analog radio frequency, RF, signal received by the receiver; for a first target interference type affecting the analog RF signal at the receiver, configuring a first filter in a first interference cancellation circuit using a coefficient computed from analog feedback that is based on a feedback signal provided by the receiver, wherein the first interference circuit is configured to cancel, in the analog RF signal, interference at a fundamental frequency of the interfering signal transmitted by the transmitter; and for a second target interference type affecting the analog RF signal at the receiver, configuring a second filter in a second interference cancellation circuit using a coefficient computed based on digital feedback provided by the receiver, wherein the second interference circuit is configured to cancel, in the analog RF signal, out of band interference from the interfering signal. receiving a reference signal representative of an interfering signal transmitted by the transmitter; responsive to the reference signal, selecting a target interference type from a plurality of interference types affecting an analog radio frequency, RF, signal received by the receiver; for a first target interference type affecting the analog RF signal at the receiver, configuring a first filter in a first interference cancellation circuit using a coefficient computed from analog feedback that is based on a feedback signal provided by the receiver, wherein the first interference circuit is configured to cancel, in the analog RF signal, interference at a fundamental frequency of the interfering signal transmitted by the transmitter; and for a second target interference type affecting the analog RF signal at the receiver, configuring a second filter in a second interference cancellation circuit using a coefficient computed based on digital feedback provided by the receiver, wherein the second interference circuit is configured to cancel, in the analog RF signal, out of band interference from the interfering signal.
A power generation system comprising: a hydrothermal fluid well including a drilled hole reaching down to a hydrothermal fluid reservoir present below an ocean floor from an ocean floor surface and a casing installed in the drilled hole through a guide base on the ocean floor surface; an anode provided on a flow channel for hot water formed by the hydrothermal fluid well; the power generation system being characterised in that it further comprises: a cathode provided in seawater other than the flow channel for hot water formed by the hydrothermal fluid well and not affected by the hot water; and an ocean floor device that is connected with the anode and the cathode using a cable respectively and extracts power from the currents that are generated by the anode reaction in the anode and the cathode reaction in the cathode, and flow in the cable. a hydrothermal fluid well including a drilled hole reaching down to a hydrothermal fluid reservoir present below an ocean floor from an ocean floor surface and a casing installed in the drilled hole through a guide base on the ocean floor surface; an anode provided on a flow channel for hot water formed by the hydrothermal fluid well; a cathode provided in seawater other than the flow channel for hot water formed by the hydrothermal fluid well and not affected by the hot water; and an ocean floor device that is connected with the anode and the cathode using a cable respectively and extracts power from the currents that are generated by the anode reaction in the anode and the cathode reaction in the cathode, and flow in the cable.
A lighting system comprising - a lighting device, - a beacon arranged in or at the lighting device, - an energy interface from the beacon to the lighting device, whereby a permanent energy access is provided to supply the beacon with energy, - a sensor device for acquiring an environmental parameter relating to an environment of the lighting system, wherein the beacon is in a first communication link with the sensor device, and - a mobile terminal, wherein the mobile terminal comprises a sensor, wherein the beacon is in a second communication link with the mobile terminal, characterized in that - the beacon is formed - to receive a value of the sensor and to automatically configure itself therewith as well as based on the environmental parameter, wherein multiple parameters of the beacon are adjusted in the self-configuration of the beacon. - a lighting device, - a beacon arranged in or at the lighting device, - an energy interface from the beacon to the lighting device, whereby a permanent energy access is provided to supply the beacon with energy, - a sensor device for acquiring an environmental parameter relating to an environment of the lighting system, wherein the beacon is in a first communication link with the sensor device, and - a mobile terminal, wherein the mobile terminal comprises a sensor, wherein the beacon is in a second communication link with the mobile terminal, - the beacon is formed - to receive a value of the sensor and to automatically configure itself therewith as well as based on the environmental parameter, wherein multiple parameters of the beacon are adjusted in the self-configuration of the beacon.
A method for determining the forward and reverse available capacity or tight link capacity of a path from a single endpoint, comprising: transmitting, from a source endpoint node toward a destination endpoint node, a forward packet train including a first plurality of test packets over a forward path; receiving, at said source endpoint node, a corresponding reverse packet train from said destination endpoint node, said reverse packet train including a second plurality of test packets over a reverse path each of which correspond to a respective one of said first plurality of test packets; extracting, by said source endpoint node, information from said second plurality of test packets; determining, by said source endpoint node, said forward and reverse available capacity or tight link capacity of said path based on said extracted information; and providing, by said source endpoint node, a reverse packet field in at least one of said first plurality of test packets, which reverse packet field informs said destination endpoint node about a rate at which to transmit said second plurality of test packets. transmitting, from a source endpoint node toward a destination endpoint node, a forward packet train including a first plurality of test packets over a forward path; receiving, at said source endpoint node, a corresponding reverse packet train from said destination endpoint node, said reverse packet train including a second plurality of test packets over a reverse path each of which correspond to a respective one of said first plurality of test packets; extracting, by said source endpoint node, information from said second plurality of test packets; determining, by said source endpoint node, said forward and reverse available capacity or tight link capacity of said path based on said extracted information; and providing, by said source endpoint node, a reverse packet field in at least one of said first plurality of test packets, which reverse packet field informs said destination endpoint node about a rate at which to transmit said second plurality of test packets.
Polymer having urethane or thiourethane units comprising at least, on the one hand, base units comprising at least a sub-unit of formula -X 1 -CO-NH- in which X 1 respectively represents O or S, and, on the other hand, additional units comprising at least, on the one hand, a secondary alcohol function, and, on the other hand, a thioether function in the α position relative to this alcohol function.
A flow body for an aircraft, the flow body comprising: - a front skin having a leading edge, - at least one internal structural component (16, 40) arranged inside the front skin, - at least one lever (22, 24) having a first end, a second end and an attachment point between the first end and the second end, and - at least one actuator (12, 14) for applying an impulsive force, wherein the at least one actuator (12, 14) is arranged inside the front skin at a distance thereto, wherein the at least one lever (22, 24) extends from the at least one actuator (12, 14) to an inner surface of the front skin, such that the first end is coupled with the front skin and such that the second end is coupled with the at least one actuator (12, 14), wherein the attachment point is swivably supported on the at least one internal structural component (16, 40), wherein a distance between the second end and the attachment point is greater than the distance between the first end and the attachment point, and wherein the at least one lever (22, 24) and the at least one actuator (12, 14) are designed for applying an impulsive force in a transverse direction to the at least one lever (22, 24), such that the lever (22, 24) rotates around the attachment point and such the first end urges the front skin to locally elastically deform for removing ice accretion from an outer side of the front skin. - a front skin having a leading edge, - at least one internal structural component (16, 40) arranged inside the front skin, - at least one lever (22, 24) having a first end, a second end and an attachment point between the first end and the second end, and - at least one actuator (12, 14) for applying an impulsive force, wherein the at least one actuator (12, 14) is arranged inside the front skin at a distance thereto, wherein the at least one lever (22, 24) extends from the at least one actuator (12, 14) to an inner surface of the front skin, such that the first end is coupled with the front skin and such that the second end is coupled with the at least one actuator (12, 14), wherein the attachment point is swivably supported on the at least one internal structural component (16, 40), wherein a distance between the second end and the attachment point is greater than the distance between the first end and the attachment point, and wherein the at least one lever (22, 24) and the at least one actuator (12, 14) are designed for applying an impulsive force in a transverse direction to the at least one lever (22, 24), such that the lever (22, 24) rotates around the attachment point and such the first end urges the front skin to locally elastically deform for removing ice accretion from an outer side of the front skin.