mhurhangee/patent-ind-claim-en huggingface dataset:
Method for allocating subcarriers of a frequency spectrum to operators in a wireless multi carrier communication system, which comprises a central control means and at least two base stations for wireless communication with terminals in said wireless multi carrier communication system, said at least two base stations being operated by at least two operators, comprising the steps of determining, by said central control means , a subcarrier distribution, said subcarrier distribution being an allocation of fragments of said frequency spectrum to said at least two operators, wherein a fragment comprises at least one subcarrier and is only allocated to one of said at least two operators, but not to another one of said at least two operators, forwarding, by said central control means , said subcarrier distribution to said at least two base stations, and forwarding, by said central control means , a radiation mask which comprises information allowing base stations to reduce interference between different operators to which adjacent fragments are allocated to said at least two base stations , depending on the frequency synchronization between the different operators to which adjacent fragments are allocated; characterized in that said radiation mask is determined on the basis of information about the frequency synchronization between the different operators to which adjacent fragments are allocated; wherein if it is determined that a value reflecting the quality of the frequency synchronization between the different operators to which adjacent fragments are allocated is larger than a threshold, a radiation mask is not established.
A method , comprising: creating , by a network system, a source network of flight paths, the source network comprising a set of possible flight paths between two locations; assigning , by the network system, a cost for traversing each edge of each flight path of the source network of flight paths; aggregating, by the network system, the cost for traversing each edge of each flight path to obtain a cost for each flight path of the source network of flight paths; based on the cost for each flight path of the source network of flight paths, idenfiying , by the network system, a flight path having the lowest cost, the flight path having the lowest cost being an optimized route between the two locations and comprising a corridor having a plurality of skylanes spaced a minimum distance apart; generating , by a hardware processor of the network system, an operations volume for a skylane of the plurality of skylanes of the optimized route based in part on one or more characteristics of an aircraft assigned to the skylane, the operations volume being a three-dimensional representation of the skylane between the two locations; and transmitting the operations volume to a further system for use. creating , by a network system, a source network of flight paths, the source network comprising a set of possible flight paths between two locations; assigning , by the network system, a cost for traversing each edge of each flight path of the source network of flight paths; aggregating, by the network system, the cost for traversing each edge of each flight path to obtain a cost for each flight path of the source network of flight paths; based on the cost for each flight path of the source network of flight paths, idenfiying , by the network system, a flight path having the lowest cost, the flight path having the lowest cost being an optimized route between the two locations and comprising a corridor having a plurality of skylanes spaced a minimum distance apart; generating , by a hardware processor of the network system, an operations volume for a skylane of the plurality of skylanes of the optimized route based in part on one or more characteristics of an aircraft assigned to the skylane, the operations volume being a three-dimensional representation of the skylane between the two locations; and transmitting the operations volume to a further system for use.
A method for removing dissolved solids from a waste stream comprising: evaporating water from the waste stream in a first evaporator at a temperature of less than 60°C and at a pressure in the range of approximately 0.1 atm to approximately 0.2 atm to form a first vapor stream and concentrating the waste stream causing dissolved solids to precipitate therefrom to form a first slurry stream having crystallized solids; compressing at least a portion the first vapor stream; condensing at least a portion of the compressed first vapor stream; heating at least a portion of the first slurry stream with at least a portion of the compressed first vapor stream; removing at least a portion of remaining dissolved solids in the first slurry stream by evaporating water from the first slurry stream in a second evaporator at a temperature less than 60°C and at a pressure of approximately 0.015 atm to approximately 0.025 atm to form a second vapor stream and concentrating the first slurry stream causing dissolved solids to precipitate therefrom to form a second slurry stream having crystallized solids; condensing at least a portion of the second vapor stream; heating at least a portion of the second slurry stream with a refrigerant; and separating at least a portion of the crystallized solids from the second slurry stream and forming a mother liquor and solid cake. evaporating water from the waste stream in a first evaporator at a temperature of less than 60°C and at a pressure in the range of approximately 0.1 atm to approximately 0.2 atm to form a first vapor stream and concentrating the waste stream causing dissolved solids to precipitate therefrom to form a first slurry stream having crystallized solids; compressing at least a portion the first vapor stream; condensing at least a portion of the compressed first vapor stream; heating at least a portion of the first slurry stream with at least a portion of the compressed first vapor stream; removing at least a portion of remaining dissolved solids in the first slurry stream by evaporating water from the first slurry stream in a second evaporator at a temperature less than 60°C and at a pressure of approximately 0.015 atm to approximately 0.025 atm to form a second vapor stream and concentrating the first slurry stream causing dissolved solids to precipitate therefrom to form a second slurry stream having crystallized solids; condensing at least a portion of the second vapor stream; heating at least a portion of the second slurry stream with a refrigerant; and separating at least a portion of the crystallized solids from the second slurry stream and forming a mother liquor and solid cake.
A method for preparing a sample (P) for microstructure diagnosis, in which a sample portion (PA) is prepared on a sample body and then an investigation region, which comprises a target region (ZB) to be investigated, is produced by material-ablating machining, the method having the following steps: producing a terrace formation zone (TBZ) comprising the target region on at least one surface (OB, OB1, OB2) of the sample portion, wherein, in order to produce the terrace formation zone adjacent to the target region, at least one notch (K, K1, K2, K3) with a front flank (F1) and a rear flank (F2) extending obliquely to the surface is produced by material-ablating beam machining; and ablating material from the surface of the sample portion (PA) in the region of the terrace formation zone (TBZ) by means of an ion beam (IB), which is irradiated with glancing incidence at an angle of less than 15° between the surface of the sample portion and the direction of irradiation of the ion beam obliquely to a direction of extension of the notch (K, K1, K2, K3) onto the surface in such a manner that, due to the orientation of the rear flank (F2) oblique to the surface, the ions of the ion beam impinge more or less perpendicularly on that portion of the rear flank (F2) which is not shaded by the opposing front flank (F1), that the target region (ZB) is located behind the notch in the direction of irradiation of the ion beam (IB), and that, due to terrace formation in the region behind the notch, the surface is recessed substantially parallel to the original level of the surface by ion beam machining. producing a terrace formation zone (TBZ) comprising the target region on at least one surface (OB, OB1, OB2) of the sample portion, wherein, in order to produce the terrace formation zone adjacent to the target region, at least one notch (K, K1, K2, K3) with a front flank (F1) and a rear flank (F2) extending obliquely to the surface is produced by material-ablating beam machining; and ablating material from the surface of the sample portion (PA) in the region of the terrace formation zone (TBZ) by means of an ion beam (IB), which is irradiated with glancing incidence at an angle of less than 15° between the surface of the sample portion and the direction of irradiation of the ion beam obliquely to a direction of extension of the notch (K, K1, K2, K3) onto the surface in such a manner that, due to the orientation of the rear flank (F2) oblique to the surface, the ions of the ion beam impinge more or less perpendicularly on that portion of the rear flank (F2) which is not shaded by the opposing front flank (F1), that the target region (ZB) is located behind the notch in the direction of irradiation of the ion beam (IB), and that, due to terrace formation in the region behind the notch, the surface is recessed substantially parallel to the original level of the surface by ion beam machining.
A method for wireless communications by a user equipment, UE, comprising: receiving signaling configuring the UE with one or more reference signal, RS, resource sets, wherein each of the one or more RS resource sets is associated with a first or second type of beam refinement procedure; sending an indication to a base station, BS, of at least a first latency and a second latency, longer than the first latency; receiving downlink control information, DCI, triggering RS transmissions using a RS resource set associated with the second type of beam refinement procedure; and determining to monitor the RS transmissions at the first or second latency, with respect to the DCI. receiving signaling configuring the UE with one or more reference signal, RS, resource sets, wherein each of the one or more RS resource sets is associated with a first or second type of beam refinement procedure; sending an indication to a base station, BS, of at least a first latency and a second latency, longer than the first latency; receiving downlink control information, DCI, triggering RS transmissions using a RS resource set associated with the second type of beam refinement procedure; and determining to monitor the RS transmissions at the first or second latency, with respect to the DCI.
Electronic system comprising: a. a casing comprising a first bearing surface , b. a first busbar attached to the casing and comprising a first connection end having a first connection surface , c. an electronic unit comprising a second bearing surface , the electronic unit being intended to be inserted into the casing in an insertion direction (S) and the electronic unit comprising: i. a support , ii. a second busbar attached to the support and comprising a second connection end having a second connection surface , the second bearing surface being intended to slide on the first bearing surface when the electronic unit is inserted into the casing , wherein one from among the first bearing surface and the second bearing surface comprises a ramp that is inclined relative to the insertion direction (S) for deforming the second busbar so as to bring the second connection surface closer to the first connection surface when the electronic unit is inserted into the casing . a. a casing comprising a first bearing surface , b. a first busbar attached to the casing and comprising a first connection end having a first connection surface , c. an electronic unit comprising a second bearing surface , the electronic unit being intended to be inserted into the casing in an insertion direction (S) and the electronic unit comprising: i. a support , ii. a second busbar attached to the support and comprising a second connection end having a second connection surface , i. a support , ii. a second busbar attached to the support and comprising a second connection end having a second connection surface , the second bearing surface being intended to slide on the first bearing surface when the electronic unit is inserted into the casing , wherein one from among the first bearing surface and the second bearing surface comprises a ramp that is inclined relative to the insertion direction (S) for deforming the second busbar so as to bring the second connection surface closer to the first connection surface when the electronic unit is inserted into the casing .
A method of accessing an industrial communication network using an access unit having first ports and at least one second port , the first ports remaining connected to the communication network during an operational phase in which no testing is performed, the method comprising: passing data traffic between nodes (41-44) of the communication network through the access unit between the first ports of the access unit in a first operational state of the access unit ; and passing the data traffic to a test node (34; 35) via the at least one second port of the access unit and/or allowing test data to be injected into the communication network via the at least one second port of the access unit in a second operational state of the access unit , wherein, in the first operational state of the access unit , the data traffic is passed between the first ports of the access unit through the access unit using passive components only. passing data traffic between nodes (41-44) of the communication network through the access unit between the first ports of the access unit in a first operational state of the access unit ; and passing the data traffic to a test node (34; 35) via the at least one second port of the access unit and/or allowing test data to be injected into the communication network via the at least one second port of the access unit in a second operational state of the access unit , wherein, in the first operational state of the access unit , the data traffic is passed between the first ports of the access unit through the access unit using passive components only.
Lighting device (1;33) for vehicles, comprising at least a LED light source and an optical system for collecting and distributing according to a desired photometric profile a light beam produced by said LED light source; wherein the optical system comprises: - a refractive lens arranged in front of the LED light source and in a distal position from the LED light source ; - a collimator element arranged in a position close to, and substantially at, the LED light source and designed to concentrate the light beam in a focal point (F) arranged between the collimator element and the refractive lens and lying on an optical axis (X) connecting the centre line of the collimator element with the centre line of the refractive lens , which is consequently coaxial with the collimator element ; - the collimator element being defined by a block of light-pervious material delimited laterally by a total internal reflection surface and frontally, at a first end directed towards the LED light source, by a first lens arranged on the optical axis and which faces an internal cavity of the block of light-pervious material, said cavity surrounding the LED light source; the block of light-pervious material defining the collimator element being further delimited, at a second end thereof opposite the first, by a second lens arranged on the optical axis, coaxial with the first lens , the second lens being directed towards and facing the refractive lens . - a refractive lens arranged in front of the LED light source and in a distal position from the LED light source ; - a collimator element arranged in a position close to, and substantially at, the LED light source and designed to concentrate the light beam in a focal point (F) arranged between the collimator element and the refractive lens and lying on an optical axis (X) connecting the centre line of the collimator element with the centre line of the refractive lens , which is consequently coaxial with the collimator element ; - the collimator element being defined by a block of light-pervious material delimited laterally by a total internal reflection surface and frontally, at a first end directed towards the LED light source, by a first lens arranged on the optical axis and which faces an internal cavity of the block of light-pervious material, said cavity surrounding the LED light source; the block of light-pervious material defining the collimator element being further delimited, at a second end thereof opposite the first, by a second lens arranged on the optical axis, coaxial with the first lens , the second lens being directed towards and facing the refractive lens .
A laundry detergent composition comprising: (i) from 4 to 50 wt % of a charged surfactant; (ii) from 0.1 to 20 wt % of an alkoxylated polyaryl or alkoxylated polyalkyl phenol, of the following structure: wherein R 1 , is selected from linear or branched C3-C15 alkyl groups and aryl groups; X is selected from ethoxy or propoxy groups; n is from 2 to 70; T is selected from H, SO 3 ; COO - and PO 3 2- , preferably H and SO 3 - ; (iii) from 0.0001 to 0.5 wt% of a blue or violet shading dye; and, (iv) from 0.0001 to 0.5 wt % of a fluorescer, wherein the alkoxylated polyarylphenol or the alkoxylated polyalkylphenol is not considered a surfactant and does not contribute numerically to the surfactant content. (i) from 4 to 50 wt % of a charged surfactant; (ii) from 0.1 to 20 wt % of an alkoxylated polyaryl or alkoxylated polyalkyl phenol, of the following structure: wherein R 1 , is selected from linear or branched C3-C15 alkyl groups and aryl groups; X is selected from ethoxy or propoxy groups; n is from 2 to 70; T is selected from H, SO 3 ; COO - and PO 3 2- , preferably H and SO 3 - ; (iii) from 0.0001 to 0.5 wt% of a blue or violet shading dye; and, (iv) from 0.0001 to 0.5 wt % of a fluorescer,
A machine learning device , comprising: a data acquisition unit configured to acquire an image data; and a machine learning calculation unit configured to execute a calculation based on the image data using a convolutional neural network, wherein the convolutional neural network comprises a plurality of layers, and the machine learning calculation unit includes: an encryption processing unit configured to execute the calculation by a homomorphic encryption in an encryption execution area; characterized in that the machine learning calculation unit further includes: a plaintext processing unit configured to execute the calculation in a plaintext encryption area; and a reception unit configured to receive a layer designation information for designating an N-th layer which is an intermediate layer between an input layer and an output layer of the convolutional neural network, and in that : the encryption processing unit is configured to execute the calculation from the input layer to the N-th layer, and the plaintext processing unit is configured to execute the calculation from the (N+1)-th layer to the output layer. a data acquisition unit configured to acquire an image data; and a machine learning calculation unit configured to execute a calculation based on the image data using a convolutional neural network, wherein the convolutional neural network comprises a plurality of layers, and the machine learning calculation unit includes: an encryption processing unit configured to execute the calculation by a homomorphic encryption in an encryption execution area; characterized in that the machine learning calculation unit further includes: a plaintext processing unit configured to execute the calculation in a plaintext encryption area; and a reception unit configured to receive a layer designation information for designating an N-th layer which is an intermediate layer between an input layer and an output layer of the convolutional neural network, and in that : a plaintext processing unit configured to execute the calculation in a plaintext encryption area; and a reception unit configured to receive a layer designation information for designating an N-th layer which is an intermediate layer between an input layer and an output layer of the convolutional neural network, and in that : the encryption processing unit is configured to execute the calculation from the input layer to the N-th layer, and the plaintext processing unit is configured to execute the calculation from the (N+1)-th layer to the output layer.
An antifungal cyclic glycopeptide compound, and pharmaceutically and agriculturally acceptable salts thereof, for preventing or treating fungal infection or disease, said cyclic glycopeptide being derived from the bacterial strain Burkholderia contaminans; characterized by having two structural variants having a monoisotopic mass of 1199.543 Da and 1215.518 Da, the difference corresponding to the mass of an oxygen atom, composed of eight amino acids two of which are β-hydroxy derivatives of Tyrosine (Tyr) and Asparagine (Asn) and one novel amino acid serving as a scaffold for the attachment of a xylose sugar and a short acyl chain; and further characterized by having the following total correlation spectroscopy (TOCSY) NMR spectra A: and by having the following nuclear Overhauser enhancement spectroscopy (NOESY) 2D NMR spectra B: said spectra being obtained by dissolving a 5 mM sample of the cyclic glycopeptide in 50% acetronitrile-d3 and 50% water, in a total volume of 700 μL, and collecting the NMR data at a proton frequency of 800 MHz, a spectral sweep width of 9000.0 Hz in the proton and carbon dimensions, a temperature of 25 °C with the carrier frequency centered on a water resonance frequency while suppressing the water resonance using a double-pulsed field gradient selective echo technique, with data acquisition for the TOCSY NMR spectra A using a 60 millisecond mixing time using the DIPSI-2 sequence and employing a 1.5 second relaxation delay between scans, and with data acquisition for the NOESY 2D NMR spectra B using a 400 millisecond mixing time using the DIPSI-2 sequence and employing a 1.5 second relaxation delay between scans.
A communication mode switching method, applied to a first network device of a source cell, wherein the method comprises: sending (S210), by the first network device of the source cell, a Packet Data Convergence Protocol, PDCP, data transmission status of user equipment in a first communication mode to a second network device of a target cell, wherein the second network device is configured to use a second communication mode to deliver a service to the user equipment according to the PDCP data transmission status; wherein the method further comprises: triggering, by the first network device, the user equipment to report a PDCP reception status to the second network device by sending configuration information, wherein the configuration information is used to trigger the user equipment to report the PDCP reception status to the second network device. sending (S210), by the first network device of the source cell, a Packet Data Convergence Protocol, PDCP, data transmission status of user equipment in a first communication mode to a second network device of a target cell, wherein the second network device is configured to use a second communication mode to deliver a service to the user equipment according to the PDCP data transmission status; wherein the method further comprises: triggering, by the first network device, the user equipment to report a PDCP reception status to the second network device by sending configuration information, wherein the configuration information is used to trigger the user equipment to report the PDCP reception status to the second network device.