mhurhangee/ep-ind-claims huggingface dataset:
A stimulated Raman scattering spectrophotometer "SRS" system comprising: a pump laser and a Stokes laser adapted and configured to produce a series of combined laser beams; a timing generator configured to activate said tunable and fixed wavelength lasers in a predetermined sequence for generating said series of combined beams; at least one detection probe comprising at least one detection element (5A, 5B, 90) configured to contain a target sample in optical communication with said pump and Stokes lasers so as to be illuminated by the combined beams; at least one wavelength splitter arranged to split the combined beams received from said detection elements into pump and Stokes laser beams; a plurality of photodetectors (23, 24) arranged to receive the split beams and configured to convert them into analog signals and then convey them to a plurality of analog to digital convertors "ADCs" (26, 26') for conversion to digital signals; and a control and data processing subsystem configured to further process the digital signals generating a SRS spectrum from the processed signals, characterized in that one of said pump laser and said Stokes laser is a narrow range tunable laser while the other is an array of fixed wavelength lasers; only one of said fixed wavelength lasers is activated at a given time and forms said combined laser beam with the tunable laser; and said at least one detection element (5A, 5B) comprises two detection chambers one of which is configured to contain a reference sample and the other of which is configured to contain said target sample. a pump laser and a Stokes laser adapted and configured to produce a series of combined laser beams; a timing generator configured to activate said tunable and fixed wavelength lasers in a predetermined sequence for generating said series of combined beams; at least one detection probe comprising at least one detection element (5A, 5B, 90) configured to contain a target sample in optical communication with said pump and Stokes lasers so as to be illuminated by the combined beams; at least one wavelength splitter arranged to split the combined beams received from said detection elements into pump and Stokes laser beams; a plurality of photodetectors (23, 24) arranged to receive the split beams and configured to convert them into analog signals and then convey them to a plurality of analog to digital convertors "ADCs" (26, 26') for conversion to digital signals; and a control and data processing subsystem configured to further process the digital signals generating a SRS spectrum from the processed signals, characterized in that one of said pump laser and said Stokes laser is a narrow range tunable laser while the other is an array of fixed wavelength lasers; only one of said fixed wavelength lasers is activated at a given time and forms said combined laser beam with the tunable laser; and said at least one detection element (5A, 5B) comprises two detection chambers one of which is configured to contain a reference sample and the other of which is configured to contain said target sample.
A porous material comprising particles of polymer P assembled by a block copolymer, the block copolymer comprising at least one block consisting of a polymer sequence immiscible with the polymer P, and at least two blocks consisting of polymer sequences miscible with the polymer P, wherein: - the block copolymer is a triblock copolymer of general formula ABA, in which A represents a block consisting of a polymer sequence miscible with the polymer P, and B represents a block consisting of a polymer sequence immiscible with the polymer P; - the block A and the block B are acrylic or methacrylic homopolymer or copolymer sequences, and - the polymer P is chosen from polyvinylidene fluoride and polyvinyl chlorides. - the block copolymer is a triblock copolymer of general formula ABA, in which A represents a block consisting of a polymer sequence miscible with the polymer P, and B represents a block consisting of a polymer sequence immiscible with the polymer P; - the block A and the block B are acrylic or methacrylic homopolymer or copolymer sequences, and - the polymer P is chosen from polyvinylidene fluoride and polyvinyl chlorides.
A percussive shaker instrument comprising: an enclosed body, the body comprising plurality of striking surfaces: a core assembly disposed inside the body, the core assembly comprising a plurality of channels, at least one first channel extending between a first striking surface and a second striking surface; at least one striker, the striker disposed inside the first channel; the striker freely movable within the first channel such that striker is capable of striking the first striking surface and the second striking surface when the instrument is moved. an enclosed body, the body comprising plurality of striking surfaces: a core assembly disposed inside the body, the core assembly comprising a plurality of channels, at least one first channel extending between a first striking surface and a second striking surface; at least one striker, the striker disposed inside the first channel; the striker freely movable within the first channel such that striker is capable of striking the first striking surface and the second striking surface when the instrument is moved. a core assembly disposed inside the body, the core assembly comprising a plurality of channels, at least one first channel extending between a first striking surface and a second striking surface; at least one striker, the striker disposed inside the first channel; the striker freely movable within the first channel such that striker is capable of striking the first striking surface and the second striking surface when the instrument is moved.
A radio access network comprising: a one or more radio access points to wirelessly engage in communication with one or more wireless communication devices; a Malicious Packet Detector communicatively coupled to one or more radio access points and configured to detect one or more malicious packets transmitted to said radio access network by the one or more wireless communication devices; and a controller functionally associated with the MPD to alter network configuration so as to mitigate malicious packet flow from the one or more malicious packet transmitting wireless communication devices, wherein said MPD detects whether a packet is a malicious packet by inspecting at least one characteristics of the packet to assess whether the packet is part of a denial of service attack on a data network resource, wherein said MPD detects whether a packet is part of a malicious packet flow by inspecting at least one characteristic of a set of packets addressed to a common or related data network resource, and wherein the at least one characteristic of the set of packets is selected from the group consisting of: (a) destination address, (b) source address, (c) duration between consecutive packets, (d) patterns of packet transmissions from a given device, and (e) a correlation between packets being transmitted to a common destination address substantially concurrently by separate devices. a one or more radio access points to wirelessly engage in communication with one or more wireless communication devices; a Malicious Packet Detector communicatively coupled to one or more radio access points and configured to detect one or more malicious packets transmitted to said radio access network by the one or more wireless communication devices; and a controller functionally associated with the MPD to alter network configuration so as to mitigate malicious packet flow from the one or more malicious packet transmitting wireless communication devices, wherein said MPD detects whether a packet is a malicious packet by inspecting at least one characteristics of the packet to assess whether the packet is part of a denial of service attack on a data network resource, wherein said MPD detects whether a packet is part of a malicious packet flow by inspecting at least one characteristic of a set of packets addressed to a common or related data network resource, and wherein the at least one characteristic of the set of packets is selected from the group consisting of: (a) destination address, (b) source address, (c) duration between consecutive packets, (d) patterns of packet transmissions from a given device, and (e) a correlation between packets being transmitted to a common destination address substantially concurrently by separate devices.
An electronic device, comprising: a communicator (no) comprising communication circuitry; and a processor configured to: control the communicator to communicate with an access point, AP, device, receive a request via user command to check a communication network error, obtain information associated with a communication network between the AP device and the electronic device, estimate a bandwidth of the communication network based on the obtained information, identify a communication network error between the electronic device and the AP device if the estimated bandwidth is below a threshold; identify a communication network error between the AP device and an internet service provider if the estimated bandwidth is at or above the threshold, and provide guide information to the user for solving the communication network error based on the identification result. a communicator (no) comprising communication circuitry; and a processor configured to: control the communicator to communicate with an access point, AP, device, receive a request via user command to check a communication network error, obtain information associated with a communication network between the AP device and the electronic device, estimate a bandwidth of the communication network based on the obtained information, identify a communication network error between the electronic device and the AP device if the estimated bandwidth is below a threshold; identify a communication network error between the AP device and an internet service provider if the estimated bandwidth is at or above the threshold, and provide guide information to the user for solving the communication network error based on the identification result. control the communicator to communicate with an access point, AP, device, receive a request via user command to check a communication network error, obtain information associated with a communication network between the AP device and the electronic device, estimate a bandwidth of the communication network based on the obtained information, identify a communication network error between the electronic device and the AP device if the estimated bandwidth is below a threshold; identify a communication network error between the AP device and an internet service provider if the estimated bandwidth is at or above the threshold, and provide guide information to the user for solving the communication network error based on the identification result.
A composition comprising a polymer with infrared-reflective clusters dispersed therein, wherein said clusters are clusters of titanium dioxide primary particles, wherein the titanium dioxide primary particles are cemented together with precipitated silica, precipitated alumina, or a combination of precipitated silica and precipitated alumina to form the infrared-reflective clusters, wherein the titanium dioxide primary particles have an average particle diameter in the range of from 0.15 to 0.35 micron, and the infrared-reflective clusters have a geometric mass mean cluster diameter in the range of from 0.38 to 5 microns and a geometric standard deviation in the range of from 1.55 to 2.5, wherein the average particle diameter of the primary particles and the geometric mass mean cluster diameter and geometric standard deviation of the infrared-reflective clusters are measured using the method described in the description.
A method of operating a wireless device (300, 4110, 4200, 4491, 4530) in a communication network, the method comprising: receiving a scheduling message that includes a schedule identifying a plurality of transmission blocks, TBs; and dynamically generating an acknowledgement timer value that is based on the number of TBs of the plurality of TBs, wherein the acknowledgement timer value comprises a Hybrid Automatic Repeat Request Round Trip Time, HARQ RTT, timer value that is generated as 7 + l*N in which N is a Physical Uplink Control Channel, PUCCH, repetition factor and l is the number of the TBs of the plurality of TBs identified in the scheduling message. receiving a scheduling message that includes a schedule identifying a plurality of transmission blocks, TBs; and dynamically generating an acknowledgement timer value that is based on the number of TBs of the plurality of TBs, wherein the acknowledgement timer value comprises a Hybrid Automatic Repeat Request Round Trip Time, HARQ RTT, timer value that is generated as 7 + l*N in which N is a Physical Uplink Control Channel, PUCCH, repetition factor and l is the number of the TBs of the plurality of TBs identified in the scheduling message.
An air conditioner comprising: an indoor machine equipped with an indoor heat exchanger constituted by a plurality of heat transfer tubes (12A to 12C) in which spiral grooves (13A to 13C) whose lead angle (Ra) is 35 to 45 degrees and whose number of threads is 40 to 60 are formed on the faces inside the tubes and which pierce a plurality of fins, and an outdoor machine equipped with an outdoor heat exchanger constituted by a plurality of heat transfer tubes (22A to 22C) in which spiral grooves (23A to 23C) are formed on the faces inside the tubes whose lead angle (Rb) is smaller than the lead angle (Ra) of spiral grooves (13A to 13C) of the heat transfer tubes (12A to 12C) used for said indoor heat exchanger and the lead angle (Rb) is 25 to 35 degrees and whose number of threads is larger than the number of threads of the spiral grooves (13A to 13C) of the heat transfer tubes (12A to 12C) used for the indoor heat exchanger and the number of threads is 60 to 80 are formed on the faces inside the tubes and which pierce a plurality of fins. an indoor machine equipped with an indoor heat exchanger constituted by a plurality of heat transfer tubes (12A to 12C) in which spiral grooves (13A to 13C) whose lead angle (Ra) is 35 to 45 degrees and whose number of threads is 40 to 60 are formed on the faces inside the tubes and which pierce a plurality of fins, and an outdoor machine equipped with an outdoor heat exchanger constituted by a plurality of heat transfer tubes (22A to 22C) in which spiral grooves (23A to 23C) are formed on the faces inside the tubes whose lead angle (Rb) is smaller than the lead angle (Ra) of spiral grooves (13A to 13C) of the heat transfer tubes (12A to 12C) used for said indoor heat exchanger and the lead angle (Rb) is 25 to 35 degrees and whose number of threads is larger than the number of threads of the spiral grooves (13A to 13C) of the heat transfer tubes (12A to 12C) used for the indoor heat exchanger and the number of threads is 60 to 80 are formed on the faces inside the tubes and which pierce a plurality of fins.
A method, comprising: identifying, by an egress network device and based on a timing control packet received from an ingress network device, information that indicates a first time at which the ingress network device received the timing control packet from a first client device; determining, by the egress network device, a second time at which the egress network device will forward the timing control packet; determining, by the egress network device based on the information that indicates the first time and information that indicates the second time, a resident time of the timing control packet, wherein the resident time of the timing control packet is determined based on: determining that the ingress network device was in a synchronized state when the ingress network device provided the information that indicates the first time; and determining that the egress network device is in a synchronized state; modifying, by the egress network device, the timing control packet to indicate the resident time and to form a modified timing control packet; and forwarding, by the egress network device, the modified timing control packet to a second client device. identifying, by an egress network device and based on a timing control packet received from an ingress network device, information that indicates a first time at which the ingress network device received the timing control packet from a first client device; determining, by the egress network device, a second time at which the egress network device will forward the timing control packet; determining, by the egress network device based on the information that indicates the first time and information that indicates the second time, a resident time of the timing control packet, wherein the resident time of the timing control packet is determined based on: determining that the ingress network device was in a synchronized state when the ingress network device provided the information that indicates the first time; and determining that the egress network device is in a synchronized state; modifying, by the egress network device, the timing control packet to indicate the resident time and to form a modified timing control packet; and forwarding, by the egress network device, the modified timing control packet to a second client device. determining that the ingress network device was in a synchronized state when the ingress network device provided the information that indicates the first time; and determining that the egress network device is in a synchronized state; modifying, by the egress network device, the timing control packet to indicate the resident time and to form a modified timing control packet; and forwarding, by the egress network device, the modified timing control packet to a second client device.
A modified biotin-binding protein, comprising an amino acid sequence represented by SEQ ID NO: 2, or an amino acid sequence having 85% or more identity to the sequence represented by SEQ ID NO: 2, and having a biotin-binding activity, wherein one or more residue selected from the group consisting of: 1) an arginine residue at position 104 of SEQ ID NO: 2; 2) a lysine residue at position 141 of SEQ ID NO: 2; 3) a lysine residue at position 26 of SEQ ID NO: 2; and 4) a lysine residue at position 73 of SEQ ID NO: 2 is replaced with an acidic amino acid residue or a neutral amino acid residue having a hydropathy index of 2 or less, and wherein the modified biotin-binding protein has reduced non-specific binding activity compared to the protein consisting of the amino acid sequence represented by SEQ ID NO: 2. 1) an arginine residue at position 104 of SEQ ID NO: 2; 2) a lysine residue at position 141 of SEQ ID NO: 2; 3) a lysine residue at position 26 of SEQ ID NO: 2; and 4) a lysine residue at position 73 of SEQ ID NO: 2
A mining system including (i) an earth working equipment having at least a wear member to work the ground, a base supporting the wear member, and a retainer holding the wear member to the base, and (ii) a tool, the tool comprising: - at least one auxiliary tool to hold the wear member mounted on the earth working equipment, - a single manipulator movably supporting the at least one auxiliary tool, wherein the manipulator and the at least one auxiliary tool cooperate to remove the wear member from the earth working equipment, - a controller to direct the movements of the at least one auxiliary tool and the manipulator, - a mobile base to move the manipulator and the at least one auxiliary tool from one location to a second location close to the earth working equipment, wherein the tool can be used throughout a mine and moved to convenient locations to accommodate the removal of wear members from earth working equipment usable in different location, characterized in that - the at least one auxiliary tool is arranged to release the retainer and - the manipulator and the at least one auxiliary tool cooperate to release the retainer. (i) an earth working equipment having at least a wear member to work the ground, a base supporting the wear member, and a retainer holding the wear member to the base, and (ii) a tool, the tool comprising: - at least one auxiliary tool to hold the wear member mounted on the earth working equipment, - a single manipulator movably supporting the at least one auxiliary tool, wherein the manipulator and the at least one auxiliary tool cooperate to remove the wear member from the earth working equipment, - a controller to direct the movements of the at least one auxiliary tool and the manipulator, - a mobile base to move the manipulator and the at least one auxiliary tool from one location to a second location close to the earth working equipment, wherein the tool can be used throughout a mine and moved to convenient locations to accommodate the removal of wear members from earth working equipment usable in different location, characterized in that - the at least one auxiliary tool is arranged to release the retainer and - the manipulator and the at least one auxiliary tool cooperate to release the retainer. - at least one auxiliary tool to hold the wear member mounted on the earth working equipment, - a single manipulator movably supporting the at least one auxiliary tool, wherein the manipulator and the at least one auxiliary tool cooperate to remove the wear member from the earth working equipment, - a controller to direct the movements of the at least one auxiliary tool and the manipulator, - a mobile base to move the manipulator and the at least one auxiliary tool from one location to a second location close to the earth working equipment, wherein the tool can be used throughout a mine and moved to convenient locations to accommodate the removal of wear members from earth working equipment usable in different location, characterized in that - the at least one auxiliary tool is arranged to release the retainer and - the manipulator and the at least one auxiliary tool cooperate to release the retainer.
A mobile terminal, comprising a master control module, and said mobile terminal further comprising a singlechip; wherein said singlechip is for storing system data of the mobile terminal; said master control module is for prompting a user to input a password when a user request for operating the system data stored in the singlechip is received, and judging whether the password input by the user is correct; and is further for executing an operation request of the user when the password input by the user is correct; characterized in that, said singlechip is further for carrying out an irreversible secure hash calculation on stored initialization code and related parameters, and sending a calculation result to said master control module; said master control module is further for carrying out an irreversible secure hash calculation on the password input by the user and the related parameters, comparing whether a calculation result is consistent with the calculation result received from the singlechip, and judging whether the password input by the user is correct; and wherein the related parameters include an identification code of the singlechip, a system random number, and function code corresponding to the operation request of the user, and wherein said system random number is generated by said master control module and is sent to said singlechip.