mhurhangee/patent-ind-claim-en huggingface dataset:
A method of analyzing cyber-security risks (risks) in an industrial control system (ICS) including a plurality of networked devices , comprising: providing a processor and an associated memory storing a cyber-security algorithm, said processor running said cyber-security algorithm and implementing: data collecting to compile security data comprising at least vulnerability data including said risks regarding said plurality of networked devices by scanning said plurality of networked devices; processing said security data using a rules engine which associates a numerical score to each of said risks; aggregating data including ranking said risks across said plurality of networked devices and arranging said risks into at least one logical grouping including a plurality of security zones, each of the plurality of security zones including a router or a firewall indicating where a cyber-attack might spread if one of said plurality of networked devices is compromised, and displaying at least said logical grouping on a user station . data collecting to compile security data comprising at least vulnerability data including said risks regarding said plurality of networked devices by scanning said plurality of networked devices; processing said security data using a rules engine which associates a numerical score to each of said risks; aggregating data including ranking said risks across said plurality of networked devices and arranging said risks into at least one logical grouping including a plurality of security zones, each of the plurality of security zones including a router or a firewall indicating where a cyber-attack might spread if one of said plurality of networked devices is compromised, and displaying at least said logical grouping on a user station .
A method for in-basin neutralization in an endoscope reprocessor comprising a basin in fluid communication with a reservoir, wherein the endoscope reprocessor is for receiving an endoscope and for performing a treatment process on the endoscope, and wherein the basin has a first solution capacity and the reservoir has a second solution capacity larger than the first solution capacity, the method comprising: adding neutralizer to the basin in excess of an amount of neutralizer suitable to neutralize a treatment solution in the reservoir; adding a first portion of the treatment solution to the basin; contacting, in the basin, the neutralizer with the first portion of the treatment solution to form a secondary solution and neutralizing the first portion of the treatment solution with the neutralizer; removing a first portion of the secondary solution from the basin wherein a second portion of the secondary solution remains in the basin; adding a second portion of the treatment solution to the basin; and contacting, in the basin, the second portion of the treatment solution with the second portion of the secondary solution to form a tertiary solution and neutralizing the second portion of the treatment solution with neutralizer in the second portion of the secondary solution. adding neutralizer to the basin in excess of an amount of neutralizer suitable to neutralize a treatment solution in the reservoir; adding a first portion of the treatment solution to the basin; contacting, in the basin, the neutralizer with the first portion of the treatment solution to form a secondary solution and neutralizing the first portion of the treatment solution with the neutralizer; removing a first portion of the secondary solution from the basin wherein a second portion of the secondary solution remains in the basin; adding a second portion of the treatment solution to the basin; and contacting, in the basin, the second portion of the treatment solution with the second portion of the secondary solution to form a tertiary solution and neutralizing the second portion of the treatment solution with neutralizer in the second portion of the secondary solution.
A prosthetic heart valve comprising a plurality of leaflets secured together and retained within an expandable tubular member, each leaflet comprising cross-linked kidney capsule tissue, characterized in that the kidney capsule tissue is bi-axially oriented.
A method of treating a surface of a workpiece comprising the steps of: providing a reduced pressure chamber ; forming a gas cluster ion beam comprising gas cluster ions within the reduced pressure chamber ; accelerating the gas cluster ions to form an accelerated and focused gas cluster ion beam along a beam path within the reduced pressure chamber ; promoting fragmentation and/or dissociation of at least a portion of the accelerated gas cluster ions along the beam path by collision with background gas molecules of the same gas from which the gas cluster ion beam was formed, while retaining approximately the same velocity and trajectory of the gas clusters; removing charged particles from the beam path to form an accelerated and focused neutral beam along the beam path in the reduced pressure chamber ; holding a workpiece in the beam path; and treating at least a portion of a surface of the workpiece by irradiating it with the accelerated and focused neutral beam. providing a reduced pressure chamber ; forming a gas cluster ion beam comprising gas cluster ions within the reduced pressure chamber ; accelerating the gas cluster ions to form an accelerated and focused gas cluster ion beam along a beam path within the reduced pressure chamber ; promoting fragmentation and/or dissociation of at least a portion of the accelerated gas cluster ions along the beam path by collision with background gas molecules of the same gas from which the gas cluster ion beam was formed, while retaining approximately the same velocity and trajectory of the gas clusters; removing charged particles from the beam path to form an accelerated and focused neutral beam along the beam path in the reduced pressure chamber ; holding a workpiece in the beam path; and treating at least a portion of a surface of the workpiece by irradiating it with the accelerated and focused neutral beam.
An electrochemical-type power supply , for use in marine environment, comprising: an electrochemical stack , configured to generate electric power, in the presence, internally, of an electrolytic fluid, a first tank , configured to contain electrolytic fluid at a first temperature; a second tank , configured to contain electrolytic fluid at a second temperature, lower than the first temperature, a thermostatic valve , configured to mix electrolytic fluid at a lower temperature with electrolytic fluid at a higher temperature, for generating a mixed electrolytic fluid to be introduced into the electrochemical stack at a controlled temperature for generating a desired electric power, said electrochemical power supply source further comprising an auxiliary tank , configured to contain electrolytic fluid at a third temperature, higher than said first temperature; wherein said thermostatic valve is configured to be connected to the auxiliary tank and to receive, at an input, the electrolytic fluid at said third temperature, as said electrolytic fluid at a higher temperature, for generating the mixed electrolytic fluid, in a given operating condition. an electrochemical stack , configured to generate electric power, in the presence, internally, of an electrolytic fluid, a first tank , configured to contain electrolytic fluid at a first temperature; a second tank , configured to contain electrolytic fluid at a second temperature, lower than the first temperature, a thermostatic valve , configured to mix electrolytic fluid at a lower temperature with electrolytic fluid at a higher temperature, for generating a mixed electrolytic fluid to be introduced into the electrochemical stack at a controlled temperature for generating a desired electric power, said electrochemical power supply source further comprising an auxiliary tank , configured to contain electrolytic fluid at a third temperature, higher than said first temperature; wherein said thermostatic valve is configured to be connected to the auxiliary tank and to receive, at an input, the electrolytic fluid at said third temperature, as said electrolytic fluid at a higher temperature, for generating the mixed electrolytic fluid, in a given operating condition.
A heat exchange conduit, comprising: a body having a first portion including a first flow channel and a second portion including a second flow channel , wherein the body includes a generally planar sheet of material folded to form the first portion and the second portion with a single surface of the sheet of material forming each of a leading edge , a trailing edge , a first surface and a second surface of the heat exchange conduit, characterized in that a cross-section of the heat exchange conduit varies over a length of the heat exchange conduit.
An anti-IL-4R antibody or an antigen-binding fragment thereof, comprising any one selected from the following (i) to (iii): (i) a heavy chain variable region comprising HCDR1, HCDR2 and HCDR3 as shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively; and a light chain variable region comprising LCDR1, LCDR2 and LCDR3 as shown in SEQ ID NO: 6, SEQ ID NO: 7 and SEQ ID NO: 8, respectively; (ii) a heavy chain variable region comprising HCDR1, HCDR2 and HCDR3 as shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively; and a light chain variable region comprising LCDR1, LCDR2 and LCDR3 as shown in SEQ ID NO: 38, SEQ ID NO: 7 and SEQ ID NO: 40, respectively; (iii) a heavy chain variable region, comprising HCDR1, HCDR2 and HCDR3 as shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5 respectively; and a light chain variable region comprising LCDR1, LCDR2 and LCDR3 as shown in SEQ ID NO: 42, SEQ ID NO: 39 and SEQ ID NO: 8, respectively. (i) a heavy chain variable region comprising HCDR1, HCDR2 and HCDR3 as shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively; and a light chain variable region comprising LCDR1, LCDR2 and LCDR3 as shown in SEQ ID NO: 6, SEQ ID NO: 7 and SEQ ID NO: 8, respectively; (ii) a heavy chain variable region comprising HCDR1, HCDR2 and HCDR3 as shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively; and a light chain variable region comprising LCDR1, LCDR2 and LCDR3 as shown in SEQ ID NO: 38, SEQ ID NO: 7 and SEQ ID NO: 40, respectively; (iii) a heavy chain variable region, comprising HCDR1, HCDR2 and HCDR3 as shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5 respectively; and a light chain variable region comprising LCDR1, LCDR2 and LCDR3 as shown in SEQ ID NO: 42, SEQ ID NO: 39 and SEQ ID NO: 8, respectively.
An outdoor unit of an air conditioner connectable to an indoor unit , the outdoor unit comprising: a compressor ; a heat exchanger configured to exchange heat between air introduced from outside and refrigerant compressed by the compressor ; an expansion valve unit configured to decompress the refrigerant discharged from the heat exchanger , the expansion valve unit comprising an expansion valve , a first connection portion configured to connect the expansion valve to the heat exchanger and a second connection portion configured to connect the expansion valve to a refrigerant pipe , the refrigerant pipe configured to deliver the refrigerant, which is decompressed and expanded by the expansion valve unit , to the indoor unit when the indoor unit is connected to the outdoor unit ; and a bracket configured to support the expansion valve unit by fixing the expansion valve and one of the first connection portion or the second connection portion to the bracket , characterized in that the one of the first connection portion or the second connection portion comprises a capillary tube connected to the expansion valve and a connection tube configured to connect the capillary tube to the heat exchanger or the refrigerant pipe , and the connection tube is fixed to the bracket , and in that the expansion valve is fixed to one surface of the bracket and the connection tube is fixed to the other surface of the bracket . a compressor ; a heat exchanger configured to exchange heat between air introduced from outside and refrigerant compressed by the compressor ; an expansion valve unit configured to decompress the refrigerant discharged from the heat exchanger , the expansion valve unit comprising an expansion valve , a first connection portion configured to connect the expansion valve to the heat exchanger and a second connection portion configured to connect the expansion valve to a refrigerant pipe , the refrigerant pipe configured to deliver the refrigerant, which is decompressed and expanded by the expansion valve unit , to the indoor unit when the indoor unit is connected to the outdoor unit ; and a bracket configured to support the expansion valve unit by fixing the expansion valve and one of the first connection portion or the second connection portion to the bracket , characterized in that the one of the first connection portion or the second connection portion comprises a capillary tube connected to the expansion valve and a connection tube configured to connect the capillary tube to the heat exchanger or the refrigerant pipe , and the connection tube is fixed to the bracket , and in that the expansion valve is fixed to one surface of the bracket and the connection tube is fixed to the other surface of the bracket .
Device for testing a connection of a guarantee strip of a security seal of a closure lid having a lid main body , comprising a) a take-along element for gripping the guarantee strip ; b) a stop element for the lid main body , wherein the take-along element and the stop element are movable relative to each other in such a manner that a tear-off force can be exerted on the guarantee strip and wherein the stop element is formed on the end side of a mandrel ; c) a force-measuring device for measuring the tear-off force during the relative movement of the guarantee strip and the lid main body ; d) wherein the take-along element surrounds the mandrel in a sleeve-shaped manner, characterized in that e) the take-along element is movable linearly relative to the mandrel along a longitudinal direction of the mandrel; and f) a cutting device is arranged for severing the guarantee strip after the latter has been torn off from the lid main body. a) a take-along element for gripping the guarantee strip ; b) a stop element for the lid main body , wherein the take-along element and the stop element are movable relative to each other in such a manner that a tear-off force can be exerted on the guarantee strip and wherein the stop element is formed on the end side of a mandrel ; c) a force-measuring device for measuring the tear-off force during the relative movement of the guarantee strip and the lid main body ; d) wherein the take-along element surrounds the mandrel in a sleeve-shaped manner, characterized in that e) the take-along element is movable linearly relative to the mandrel along a longitudinal direction of the mandrel; and f) a cutting device is arranged for severing the guarantee strip after the latter has been torn off from the lid main body.
A method for wireless communication performed by a first wireless device, the method comprising: receiving data at the first wireless device from a second wireless device, the data associated with a type of service; transmitting , to the second wireless device, an indication that decoding of the data was unsuccessful; identifying an absolute latency value based at least in part on transmitting the indication, the absolute latency value corresponding to the type of service associated with the data; monitoring or avoiding monitoring for a retransmission of the data from the second wireless device based at least in part on the identified absolute latency value; and wherein a maximum number of retransmissions of the data is based at least in part on the absolute latency value corresponding to the type of service associated with the data and on variable retransmission intervals. receiving data at the first wireless device from a second wireless device, the data associated with a type of service; transmitting , to the second wireless device, an indication that decoding of the data was unsuccessful; identifying an absolute latency value based at least in part on transmitting the indication, the absolute latency value corresponding to the type of service associated with the data; monitoring or avoiding monitoring for a retransmission of the data from the second wireless device based at least in part on the identified absolute latency value; and wherein a maximum number of retransmissions of the data is based at least in part on the absolute latency value corresponding to the type of service associated with the data and on variable retransmission intervals.
A device for automatically decoupling means for connecting an electric vehicle to a recharging station by cable , the connection means including a connector , on the cable side of the recharging station, and a socket , on the electric vehicle side, the device including an active part (40; 60) mounted on the socket and a passive part mounted on the connector, the active part including an actuator (45; 65) and a plurality of rods (42, 43; 62, 63) forming plungers capable of being translated by the actuator to bear on the passive part of the device so as to generate a force in order to separate the connector from the socket , characterise in that the passive part is made up of a ring mounted on the connector , and the active part is made up of a body mounted on the socket so as to grip it.
A floatable pipe combination comprising: - a plastic pipe having a rear longitudinal end , on which a rear flange region is formed, and a front longitudinal end , on which a front flange region is formed; - a closing cover arranged on the rear longitudinal end ; - a closing cover arranged on the front longitudinal end , wherein a pulling device is arranged on the closing cover , and that at least on the front longitudinal end , a flange protection with an outer protective covering is arranged, wherein the outer protective covering is formed to radially project with respect to the outer diameter of the plastic pipe , characterized in that the front flange region and/or the rear flange region comprises a loose flange , which is supported on a welding neck , and that the outer protective covering of the flange protection is screwed together with the loose flange . - a plastic pipe having a rear longitudinal end , on which a rear flange region is formed, and a front longitudinal end , on which a front flange region is formed; - a closing cover arranged on the rear longitudinal end ; - a closing cover arranged on the front longitudinal end ,
An apparatus for performing an instantaneous short-circuit test on a polyphase synchronous generator, comprising: a switch having first terminals for connection to respective stator terminals of an electric generator and second terminals connected to one another; an acquisition module configured to acquire electric signals (V R ', V S ', V T ') representative of output voltages (V R , V S , V T ) at respective stator terminals of the electric generator ; and a processing module configured to determine a test voltage (V TEST ) from the output voltages (V R , V S , V T ) of the electric generator ; characterized in that the processing module is configured to determine a current frequency (f c ) of the test voltage (V TEST ), and to compare the current frequency (f c ) with a reference frequency (f REF ), wherein the processing module is further configured to keep the switch open when the current frequency (f c ) is greater than the reference frequency (f REF ), and to close the switch when the current frequency (f c ) substantially equals the reference frequency (f REF ). a switch having first terminals for connection to respective stator terminals of an electric generator and second terminals connected to one another; an acquisition module configured to acquire electric signals (V R ', V S ', V T ') representative of output voltages (V R , V S , V T ) at respective stator terminals of the electric generator ; and a processing module configured to determine a test voltage (V TEST ) from the output voltages (V R , V S , V T ) of the electric generator ; characterized in that the processing module is configured to determine a current frequency (f c ) of the test voltage (V TEST ), and to compare the current frequency (f c ) with a reference frequency (f REF ), wherein the processing module is further configured to keep the switch open when the current frequency (f c ) is greater than the reference frequency (f REF ), and to close the switch when the current frequency (f c ) substantially equals the reference frequency (f REF ).
A method of securely sharing data, comprising: providing, by a first user of a first computing device , to a cloud service provider , a sharing indication that the first user wishes to make data associated with the first computing device available to one or more cloud users; conveying, by the cloud service provider , a sharing data package including access policy information and key information to a trusted execution environment, TEE , of the first computing device ; generating, at the first device , an archive file representative of a drive of the first device ; encrypting, via a processor, the archive file to form an encrypted archive file; wrapping, by the TEE , an encryption key used to encrypt the archive file using key information corresponding to the second user; provisioning the encrypted archive file with the wrapped encryption key ; and conveying the encrypted archive file to a cloud service provider, the encrypted archive file to be decrypted by a second device of the second user of the cloud service, the decrypted archive file to be mounted to an operating system of the second device . providing, by a first user of a first computing device , to a cloud service provider , a sharing indication that the first user wishes to make data associated with the first computing device available to one or more cloud users; conveying, by the cloud service provider , a sharing data package including access policy information and key information to a trusted execution environment, TEE , of the first computing device ; generating, at the first device , an archive file representative of a drive of the first device ; encrypting, via a processor, the archive file to form an encrypted archive file; wrapping, by the TEE , an encryption key used to encrypt the archive file using key information corresponding to the second user; provisioning the encrypted archive file with the wrapped encryption key ; and conveying the encrypted archive file to a cloud service provider, the encrypted archive file to be decrypted by a second device of the second user of the cloud service, the decrypted archive file to be mounted to an operating system of the second device .
A method performed by a base station in a wireless communication system, the method comprising: identifying block fading based on data received from a user equipment, UE, via a physical uplink control channel, PUCCH, and in response to identifying the block fading, transmitting, to the UE, a signal indicating that data is repeatedly transmitted, and repeatedly transmitting, to the UE, data by using at least two symbols that have a preset time interval, wherein the signal indicates a spectral efficiency, SE, level according to a ratio of a first period and a second period, and wherein the first period is a period in which fading exists, and the second period is a period in which fading does not exist. identifying block fading based on data received from a user equipment, UE, via a physical uplink control channel, PUCCH, and in response to identifying the block fading, transmitting, to the UE, a signal indicating that data is repeatedly transmitted, and repeatedly transmitting, to the UE, data by using at least two symbols that have a preset time interval, wherein the signal indicates a spectral efficiency, SE, level according to a ratio of a first period and a second period, and wherein the first period is a period in which fading exists, and the second period is a period in which fading does not exist.