mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus , comprising: a detector; and processor circuitry coupled with the detector, wherein the detector is configured to: based on Wireless Fidelity, Wi-Fi, sensing, detect one or more objects within a coverage of a Wi-Fi device, detect, based on a coarse sensing procedure, movement of at least one of the one or more objects, and if movement is detected, detect, based on a fine sensing procedure, if the at least one detected object includes an animate object ; and wherein the processor circuitry is configured to: estimate a distance between the Wi-Fi device and the object and/or a location of the object ; and adapt , based on the distance and/or the location, a communication parameter of the Wi-Fi device to reduce RF energy exposure on the object . a detector; and processor circuitry coupled with the detector, wherein the detector is configured to: based on Wireless Fidelity, Wi-Fi, sensing, detect one or more objects within a coverage of a Wi-Fi device, detect, based on a coarse sensing procedure, movement of at least one of the one or more objects, and if movement is detected, detect, based on a fine sensing procedure, if the at least one detected object includes an animate object ; and based on Wireless Fidelity, Wi-Fi, sensing, detect one or more objects within a coverage of a Wi-Fi device, detect, based on a coarse sensing procedure, movement of at least one of the one or more objects, and if movement is detected, detect, based on a fine sensing procedure, if the at least one detected object includes an animate object ; and wherein the processor circuitry is configured to: estimate a distance between the Wi-Fi device and the object and/or a location of the object ; and adapt , based on the distance and/or the location, a communication parameter of the Wi-Fi device to reduce RF energy exposure on the object . estimate a distance between the Wi-Fi device and the object and/or a location of the object ; and adapt , based on the distance and/or the location, a communication parameter of the Wi-Fi device to reduce RF energy exposure on the object .
A method for treating a nanofibrillar cellulose hydrogel, wherein the method comprises the steps of: providing a nanofibrillar cellulose hydrogel having a dry-matter content of at least 0.6 weight-%, wherein the nanofibrillar cellulose is oxidized nanofibrillar cellulose, wherein the oxidation has been carried out through N-oxyl mediated catalytic oxidation of cellulose-based raw material, and has at most 50 μmol of aldehyde groups per gram of dry nanofibrillar cellulose; and subjecting the nanofibrillar cellulose hydrogel to a heat treatment, wherein the heat treatment comprises keeping the nanofibrillar cellulose hydrogel at a predetermined temperature within the range of 100 - 150 °C, for a period of time in the range of 1 second to 180 minutes, wherein the predetermined temperature and the period of time are chosen such that the number of viable micro-organisms in the nanofibrillar cellulose hydrogel is reduced. providing a nanofibrillar cellulose hydrogel having a dry-matter content of at least 0.6 weight-%, wherein the nanofibrillar cellulose is oxidized nanofibrillar cellulose, wherein the oxidation has been carried out through N-oxyl mediated catalytic oxidation of cellulose-based raw material, and has at most 50 μmol of aldehyde groups per gram of dry nanofibrillar cellulose; and subjecting the nanofibrillar cellulose hydrogel to a heat treatment, wherein the heat treatment comprises keeping the nanofibrillar cellulose hydrogel at a predetermined temperature within the range of 100 - 150 °C, for a period of time in the range of 1 second to 180 minutes, wherein the predetermined temperature and the period of time are chosen such that the number of viable micro-organisms in the nanofibrillar cellulose hydrogel is reduced.
A system (S) comprising a first equipment (E1) to which a second equipment (E2) is coupled, said first equipment (E1) comprising first (EC1) and second (EC2) coupling elements respectively comprising first (L1) and second (L2) housings open on two faces joining each other, characterized in that said second equipment (E2) comprises two faces (F1, F2) opposite each other and provided respectively with first (P1) and second (P2) projecting walls, said first projecting wall (P1) being introduced into said first housing (L1) via its two faces open by an oblique translation of said second equipment (E2) and said second projecting wall (P 2) being introduced into said second housing (L 2) via its two open faces by rotation of said second equipment (E 2) about a virtual axis perpendicular to said first projecting wall (P 1).
A source baseband (502 1 ) for a centralized radio access network, C-RAN , the source baseband being a serving baseband that performs control and signal processing functions for a serving radio node that delivers user data to a user equipment, UE, connected to the serving radio node, the source baseband comprising: a processor ; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the source baseband is operable to: dynamically select a predetermined number of neighboring basebands (502 2 , 502 3 , 502 4 , 502 5 , 502 6 ...502 n ) to be part of a co-ordination set, each neighboring baseband being a baseband that performs control and signal processing functions for a radio node that is neighbor to the serving radio node, as follows: determine which of the neighboring basebands meet a round trip time, RTT, condition, where the RTT condition is met for one of the neighboring basebands when signaling between the source baseband and the one of the neighboring basebands is less than a predetermined time; and based on a determination that there are more than the predetermined number of neighboring basebands which satisfy the RTT condition, select the predetermined number of neighboring basebands based on measurement reports received from a plurality of UEs while taking into account at least one of a carrier aggregation, CA, utilization and a coordinated multi-point, CoMP, utilization, wherein the measurement reports further comprise at least one of (i) intra-frequency measurement reports associated with the CoMP utilization, and (ii) inter-frequency measurements associated with the CA utilization. a processor ; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the source baseband is operable to: dynamically select a predetermined number of neighboring basebands (502 2 , 502 3 , 502 4 , 502 5 , 502 6 ...502 n ) to be part of a co-ordination set, each neighboring baseband being a baseband that performs control and signal processing functions for a radio node that is neighbor to the serving radio node, as follows: determine which of the neighboring basebands meet a round trip time, RTT, condition, where the RTT condition is met for one of the neighboring basebands when signaling between the source baseband and the one of the neighboring basebands is less than a predetermined time; and based on a determination that there are more than the predetermined number of neighboring basebands which satisfy the RTT condition, select the predetermined number of neighboring basebands based on measurement reports received from a plurality of UEs while taking into account at least one of a carrier aggregation, CA, utilization and a coordinated multi-point, CoMP, utilization, wherein the measurement reports further comprise at least one of (i) intra-frequency measurement reports associated with the CoMP utilization, and (ii) inter-frequency measurements associated with the CA utilization.
A blow molding device comprising: a tubular nozzle ; a pressurized fluid supply source configured to supply a pressurized incompressible fluid to the nozzle ; a tubular seal body configured to move in a vertical direction between a closed position in which the nozzle is closed and an open position in which the nozzle is open; and a rod having an outer circumferential surface that faces an inner circumferential surface of the seal body , and configured to move in the vertical direction, wherein the seal body includes a tubular wall having an outer circumferential surface that faces the nozzle when the seal body is in the closed position, a concave communication depression extending from a lower end of the tubular wall to a communication port open on the outer circumferential surface of the tubular wall is provided in the inner circumferential surface of the seal body , a communication path that communicates with the communication port when the seal body is in the closed position is provided in the nozzle , and the blow molding device further comprises at least one of: a fluid suction source configured to suck the incompressible fluid from the communication depression through the communication path and the communication port ; and a pressurized gas supply source configured to supply a pressurized gas that blows off the incompressible fluid from the communication depression through the communication path and the communication port .
An organic light emitting diode, OLED, array substrate, comprising: gate lines , data lines , and a plurality of pixel units defined by the gate lines and the data lines , wherein each pixel unit comprises a first region which emits light, a second region which is transparent and a third region which is non-transparent, the first region is provided with an organic light emitting diode, the second region is provided with a conductive unit , the conductive unit is connected to the data lines arranged at a same layer with a source/drain electrode through a via-hole penetrating through a planarization layer in the third region, and the source/drain electrode is made of a metal material; from a cross sectional view of the OLED array substrate along a direction perpendicular to a base substrate , each of the first region , the second region and the third region is provided with a gate insulating layer , an interlayer insulating layer , a passivation layer and a planarization layer ; the first region is further provided with a gate electrode , the source/drain electrode , an anode and a cathode ; and the third region is further provided with the data lines arranged at the same layer with the source/drain electrode , and the conductive unit . wherein each pixel unit comprises a first region which emits light, a second region which is transparent and a third region which is non-transparent, the first region is provided with an organic light emitting diode, the second region is provided with a conductive unit , the conductive unit is connected to the data lines arranged at a same layer with a source/drain electrode through a via-hole penetrating through a planarization layer in the third region, and the source/drain electrode is made of a metal material; from a cross sectional view of the OLED array substrate along a direction perpendicular to a base substrate , each of the first region , the second region and the third region is provided with a gate insulating layer , an interlayer insulating layer , a passivation layer and a planarization layer ; the first region is further provided with a gate electrode , the source/drain electrode , an anode and a cathode ; and the third region is further provided with the data lines arranged at the same layer with the source/drain electrode , and the conductive unit .
An oscillator system comprising: a transformer comprising a first coil and a second coil , wherein the first coil is magnetically coupled to the second coil ; the first coil comprises a plurality of sub-coils, the plurality of sub-coils comprise a first sub-coil and a second sub-coil , a first magnetic field formed by the first sub-coil passes through a layout plane of the transformer in a first manner, a second magnetic field formed by the second sub-coil passes through the layout plane in a second manner, the first manner comprises passing in from a first surface of the layout plane and passing out from a second surface of the layout plane , and the second manner comprises passing in from the second surface and passing out from the first surface ; characterized in that the second coil is a single coil, wherein a single coil is a single loop. a transformer comprising a first coil and a second coil , wherein the first coil is magnetically coupled to the second coil ; the first coil comprises a plurality of sub-coils, the plurality of sub-coils comprise a first sub-coil and a second sub-coil , a first magnetic field formed by the first sub-coil passes through a layout plane of the transformer in a first manner, a second magnetic field formed by the second sub-coil passes through the layout plane in a second manner, the first manner comprises passing in from a first surface of the layout plane and passing out from a second surface of the layout plane , and the second manner comprises passing in from the second surface and passing out from the first surface ; characterized in that the second coil is a single coil, wherein a single coil is a single loop.
Cable harness test system , comprising: a cable tester that has a microcomputer (P) and a multiplicity of first test point connections for connecting first ends of a multiplicity of electrical lines of a cable harness and is designed to feed line test signals into the multiplicity of electrical lines of the cable harness at the first test point connections, the line test signals being able to be generated by the cable tester in a manner adaptable to suit respective lines of the multiplicity of electrical lines of the cable harness; and a multiplicity of interface simulation devices that each have a multiplicity of second test point connections for connecting second ends of the multiplicity of electrical lines of the cable harness and are each designed to return line test signals received from the cable tester at the second test point connections to the cable tester by way of the multiplicity of electrical lines of the cable harness, the cable tester furthermore being designed to evaluate line test signals returned to the cable tester from the multiplicity of interface simulation devices . a cable tester that has a microcomputer (P) and a multiplicity of first test point connections for connecting first ends of a multiplicity of electrical lines of a cable harness and is designed to feed line test signals into the multiplicity of electrical lines of the cable harness at the first test point connections, the line test signals being able to be generated by the cable tester in a manner adaptable to suit respective lines of the multiplicity of electrical lines of the cable harness; and a multiplicity of interface simulation devices that each have a multiplicity of second test point connections for connecting second ends of the multiplicity of electrical lines of the cable harness and are each designed to return line test signals received from the cable tester at the second test point connections to the cable tester by way of the multiplicity of electrical lines of the cable harness, the cable tester furthermore being designed to evaluate line test signals returned to the cable tester from the multiplicity of interface simulation devices .
A composition comprising L-carnitine, orotic acid and O -(L-α-glyceryl phosphoryl) ethanolamine (GPEA) for use in prevention and/or reduction of oxidative stress of cells characterized in that the cells are human mesenchymal stem cells and L-carnitine concentration of the composition is 0.01-20 % by weight, such as 0.01-5 % by weight, orotic acid concentration of the composition is 0.01-20 % by weight, such as 0.01-5 % by weight, preferably 0.1 % by weight and GPEA concentration of the composition is 0.01-20 % by weight, such as 0.01-5 % by weight.
Method for the optical characterisation of performances of a bifacial photovoltaic module comprising a first and a second active face, each comprising a plurality of surface elements (ES1, ..., ESN), the method comprising for each active face of the module: - illuminating a surface element with selected coordinates (x, y) in a plane parallel to the active faces, by producing a beam of light comprising at least one excitation wavelength, and measuring a photocurrent generated by the illumination of this surface element, and - displacing the module in translation along said plane, successively to repeat the illumination of a plurality of successive surface elements and obtain the respective measurements of photocurrents generated in this way, - generating a photocurrent map Carto photocurrent ( λ, x, y ) of each face of the bifacial photovoltaic module, for comparing the photovoltaic performances between each face. - illuminating a surface element with selected coordinates (x, y) in a plane parallel to the active faces, by producing a beam of light comprising at least one excitation wavelength, and measuring a photocurrent generated by the illumination of this surface element, and - displacing the module in translation along said plane, successively to repeat the illumination of a plurality of successive surface elements and obtain the respective measurements of photocurrents generated in this way, - generating a photocurrent map Carto photocurrent ( λ, x, y ) of each face of the bifacial photovoltaic module, for comparing the photovoltaic performances between each face.
A composition comprising: (i) a component capable of releasing an aldehyde; (ii) an anticoagulant comprising citric acid, trisodium citrate, and dextrose; and (iii) α-cyclodextrin, wherein the component capable of releasing an aldehyde is imidazolidinyl urea. (i) a component capable of releasing an aldehyde; (ii) an anticoagulant comprising citric acid, trisodium citrate, and dextrose; and (iii) α-cyclodextrin,
A genetically modified CD34+ hematopoietic stem cell comprising: a pair of zinc finger nucleases, the pair comprising: (i) a first zinc finger nuclease that binds to a target site as shown in SEQ ID NO:5, the first ZFN comprising the following recognition helix regions: F1: LRHHLTR (SEQ ID NO:11); F2: QSGTRKT (SEQ ID NO:12); F3: RSDNLST (SEQ ID NO:13); F4: DSANRIK (SEQ ID NO:14); F5: LRHHLTR (SEQ ID NO:11); and F6: QSGNLHV (SEQ ID NO:15); and (ii) a second zinc finger nuclease that binds to a target site as shown in SEQ ID NO:4, the second ZFN comprising the following recognition helix regions: F1: AMQTLRV (SEQ ID NO:16); F2: DRSHLAR (SEQ ID NO:7); F3: RSDNLSE (SEQ ID NO:8); F4: ASKTRKN (SEQ ID NO:9); and F5: TSSDRKK (SEQ ID NO:17) or VYEGLKK (SEQ ID NO:18); and a donor sequence comprising a sequence as shown in SEQ ID NO: 19 or SEQ ID NO: 21, wherein the donor sequence is inserted into an endogenous aberrant human beta-hemoglobin (Hbb) gene following targeted cleavage by the pair of zinc finger nucleases, thereby correcting the sequence of the Hbb gene, and wherein the aberrant Hbb gene comprises an intervening sequence 1, mutation number 1 (IVS1-1) mutation. a pair of zinc finger nucleases, the pair comprising: (i) a first zinc finger nuclease that binds to a target site as shown in SEQ ID NO:5, the first ZFN comprising the following recognition helix regions: F1: LRHHLTR (SEQ ID NO:11); F2: QSGTRKT (SEQ ID NO:12); F3: RSDNLST (SEQ ID NO:13); F4: DSANRIK (SEQ ID NO:14); F5: LRHHLTR (SEQ ID NO:11); and F6: QSGNLHV (SEQ ID NO:15); and (ii) a second zinc finger nuclease that binds to a target site as shown in SEQ ID NO:4, the second ZFN comprising the following recognition helix regions: F1: AMQTLRV (SEQ ID NO:16); F2: DRSHLAR (SEQ ID NO:7); F3: RSDNLSE (SEQ ID NO:8); F4: ASKTRKN (SEQ ID NO:9); and F5: TSSDRKK (SEQ ID NO:17) or VYEGLKK (SEQ ID NO:18); (i) a first zinc finger nuclease that binds to a target site as shown in SEQ ID NO:5, the first ZFN comprising the following recognition helix regions: F1: LRHHLTR (SEQ ID NO:11); F2: QSGTRKT (SEQ ID NO:12); F3: RSDNLST (SEQ ID NO:13); F4: DSANRIK (SEQ ID NO:14); F5: LRHHLTR (SEQ ID NO:11); and F6: QSGNLHV (SEQ ID NO:15); and F1: LRHHLTR (SEQ ID NO:11); F2: QSGTRKT (SEQ ID NO:12); F3: RSDNLST (SEQ ID NO:13); F4: DSANRIK (SEQ ID NO:14); F5: LRHHLTR (SEQ ID NO:11); and F6: QSGNLHV (SEQ ID NO:15); and (ii) a second zinc finger nuclease that binds to a target site as shown in SEQ ID NO:4, the second ZFN comprising the following recognition helix regions: F1: AMQTLRV (SEQ ID NO:16); F2: DRSHLAR (SEQ ID NO:7); F3: RSDNLSE (SEQ ID NO:8); F4: ASKTRKN (SEQ ID NO:9); and F5: TSSDRKK (SEQ ID NO:17) or VYEGLKK (SEQ ID NO:18); F1: AMQTLRV (SEQ ID NO:16); F2: DRSHLAR (SEQ ID NO:7); F3: RSDNLSE (SEQ ID NO:8); F4: ASKTRKN (SEQ ID NO:9); and F5: TSSDRKK (SEQ ID NO:17) or VYEGLKK (SEQ ID NO:18); and a donor sequence comprising a sequence as shown in SEQ ID NO: 19 or SEQ ID NO: 21,
A catheter comprising: a first tubular surface ; a second tubular surface opposite the first tubular surface; and a plurality of deformations each comprising an indentation on the first surface and a corresponding protrusion on the second surface opposite the indentation; and further comprising: an inner liner ; a braided wire support structure disposed around the inner liner; and an outer polymer layer disposed around the braided wire support structure, the deformations being shaped by the inner liner, braided wire support structure, and the outer polymer layer. a first tubular surface ; a second tubular surface opposite the first tubular surface; and a plurality of deformations each comprising an indentation on the first surface and a corresponding protrusion on the second surface opposite the indentation; and further comprising: an inner liner ; a braided wire support structure disposed around the inner liner; and an outer polymer layer disposed around the braided wire support structure, the deformations being shaped by the inner liner, braided wire support structure, and the outer polymer layer. an inner liner ; a braided wire support structure disposed around the inner liner; and an outer polymer layer disposed around the braided wire support structure, the deformations being shaped by the inner liner, braided wire support structure, and the outer polymer layer.
A change detection sensor, comprising: a pixel array comprising pixels that detect light; event detectors for detecting events associated with light received by the pixels; an event rate detector for assessing the events; a counter for assessing ON events and OFF events by counting the ON events and OFF events from the event detectors and a controller for changing how the pixels detect the events based on the event rate detector, wherein the controller sets thresholds for ON events and OFF events separately based on ON events and OFF events in the pixel array. a pixel array comprising pixels that detect light; event detectors for detecting events associated with light received by the pixels; an event rate detector for assessing the events; a counter for assessing ON events and OFF events by counting the ON events and OFF events from the event detectors and a controller for changing how the pixels detect the events based on the event rate detector, wherein the controller sets thresholds for ON events and OFF events separately based on ON events and OFF events in the pixel array.
A glass composition comprising: Component Range SiO 2 60-63 wt% Na 2 O 10-12 wt% Li 2 O 4-5.5 wt% Al 2 O 3 17-19 wt% ZrO 2 3.5-5 wt% (Al 2 O 3 + ZrO 2 ) 21.5-24 wt% FeO 0.0005-0.015 wt% Fe 2 O 3 (total iron) 50-1200 ppm; and an oxidizer selected from the group of cerium oxide in the range of greater than 0 to 0.50 wt%, manganese oxide in the range of greater than 0 to 0.75 wt% and mixtures thereof, and a redox ratio in the range of 0.005-0.10.