mhurhangee/ep-ind-claims huggingface dataset:
An eyesight examination method to be carried out in an eyesight examination device according to claim 4, comprising the steps of: (a) displaying, on display unit of the eyesight examination device, an optotype image selected from a plurality of optotype image groups and four reference images located on the left side, the right side, the lower side and the upper side of the optotype image; wherein each of the optotype image groups includes different optotype images for identical shapes; (b) receiving a direction input indicating the direction from the displayed optotype image to one reference image of the displayed four reference images, wherein the direction input is generated through the direction stick of the eyesight examination device for selecting 4-direction; and (c) determining, by the control unit of the eyesight examination device, whether the reference image corresponding to the direction input among the four reference images has an identical shape with that of the optotype image, wherein one of the four reference images has the identical shape with that of the optotype image, and wherein in step (a) the optotype image groups are pre-drawn on display unit; and wherein in step (a) the plurality of LEDs of the eyesight examination device illuminate the four reference images of the reference optotype plate of the eyesight examination device. (a) displaying, on display unit of the eyesight examination device, an optotype image selected from a plurality of optotype image groups and four reference images located on the left side, the right side, the lower side and the upper side of the optotype image; wherein each of the optotype image groups includes different optotype images for identical shapes; (b) receiving a direction input indicating the direction from the displayed optotype image to one reference image of the displayed four reference images, wherein the direction input is generated through the direction stick of the eyesight examination device for selecting 4-direction; and (c) determining, by the control unit of the eyesight examination device, whether the reference image corresponding to the direction input among the four reference images has an identical shape with that of the optotype image, wherein one of the four reference images has the identical shape with that of the optotype image, and wherein in step (a) the optotype image groups are pre-drawn on display unit; and wherein in step (a) the plurality of LEDs of the eyesight examination device illuminate the four reference images of the reference optotype plate of the eyesight examination device. one of the four reference images has the identical shape with that of the optotype image, and wherein in step (a) the optotype image groups are pre-drawn on display unit; and wherein in step (a) the plurality of LEDs of the eyesight examination device illuminate the four reference images of the reference optotype plate of the eyesight examination device.
A method for the preparation of 1,2-propanediol comprising: a) reacting propene with hydrogen peroxide at a temperature of from 50 to 110 °C in the presence of a catalyst mixture comprising a phase transfer catalyst and a polytungstophosphate in a liquid reaction mixture comprising an aqueous phase with a maximum apparent pH of 6 and an organic phase, wherein the term "apparent pH" refers to a value determined by measurement with a glass electrode employing a commercial pH meter calibrated with aqueous buffer solution of known pH for measuring dilute aqueous solutions; b) separating the reaction mixture into an aqueous phase (P a) comprising 1,2-propanediol and an organic phase (P o); c) recycling at least a part of the separated organic phase (P o) to the reaction step a); and d) recovering 1,2-propanediol from the aqueous phase (P a); wherein the method comprises at least one step of e) reacting a tungstate with hydrogen peroxide and phosphoric acid at a temperature of from 5 to 40 °C in the presence of the phase transfer catalyst in a liquid mixture comprising an aqueous phase and an organic phase, followed by passing at least a part of the resulting organic phase (P oc) comprising the polytungstophosphate and phase transfer catalyst to reaction step a). a) reacting propene with hydrogen peroxide at a temperature of from 50 to 110 °C in the presence of a catalyst mixture comprising a phase transfer catalyst and a polytungstophosphate in a liquid reaction mixture comprising an aqueous phase with a maximum apparent pH of 6 and an organic phase, wherein the term "apparent pH" refers to a value determined by measurement with a glass electrode employing a commercial pH meter calibrated with aqueous buffer solution of known pH for measuring dilute aqueous solutions; b) separating the reaction mixture into an aqueous phase (P a) comprising 1,2-propanediol and an organic phase (P o); c) recycling at least a part of the separated organic phase (P o) to the reaction step a); and d) recovering 1,2-propanediol from the aqueous phase (P a);
An apparatus, operates as a path computation client, PCC, applied to a branch node along a point-to-multipoint label switch paths (P2MP LSPs),comprises: a non-transitory memory comprising programs and a processor coupled to the memory, wherein the processor is configured to executed the programs to cause the apparatus to: receive, a path computation element communication protocol, PCEP, message comprising at least two outgoing labels allocated by a path computation element central controller, PCECC, wherein the at least two outgoing labels comprising a first outgoing label and a second outgoing label, and wherein the first outgoing label is associated with node information of a first next hop node of the branch node along the P2MP LSPs, and the second outgoing label is associated with node information of a second next hop node of the branch node along the P2MP LSPs; obtain the at least two outgoing labels. a non-transitory memory comprising programs and a processor coupled to the memory, wherein the processor is configured to executed the programs to cause the apparatus to: receive, a path computation element communication protocol, PCEP, message comprising at least two outgoing labels allocated by a path computation element central controller, PCECC, wherein the at least two outgoing labels comprising a first outgoing label and a second outgoing label, and wherein the first outgoing label is associated with node information of a first next hop node of the branch node along the P2MP LSPs, and the second outgoing label is associated with node information of a second next hop node of the branch node along the P2MP LSPs; obtain the at least two outgoing labels. receive, a path computation element communication protocol, PCEP, message comprising at least two outgoing labels allocated by a path computation element central controller, PCECC, wherein the at least two outgoing labels comprising a first outgoing label and a second outgoing label, and wherein the first outgoing label is associated with node information of a first next hop node of the branch node along the P2MP LSPs, and the second outgoing label is associated with node information of a second next hop node of the branch node along the P2MP LSPs; obtain the at least two outgoing labels.
A method comprising: coupling a first side of a stainless steel shim to a silicon shim; removing metal from a second side of said stainless steel shim to form a plurality of lanes in accordance with a pattern; coupling a readout integrated circuit wafer having a plurality of saw lanes in accordance with said pattern to said second side of said stainless steel shim to form a wafer assembly, wherein said plurality of saw lanes is aligned with said plurality of lanes and wherein an undercut is formed in the stainless steel shim with respect to said readout integrated circuit on either side of each of the plurality of saw lanes; and dicing said wafer assembly. coupling a first side of a stainless steel shim to a silicon shim; removing metal from a second side of said stainless steel shim to form a plurality of lanes in accordance with a pattern; coupling a readout integrated circuit wafer having a plurality of saw lanes in accordance with said pattern to said second side of said stainless steel shim to form a wafer assembly, wherein said plurality of saw lanes is aligned with said plurality of lanes and wherein an undercut is formed in the stainless steel shim with respect to said readout integrated circuit on either side of each of the plurality of saw lanes; and dicing said wafer assembly.
A method for detecting control signaling, comprising: obtaining, by a user equipment UE, a transmission mode of a data channel configured by a base station; determining, by the UE, a first downlink control information DCI format and a second DCI format that are corresponding to the transmission mode of the data channel, wherein physical downlink control channel PDCCH information corresponding to the first DCI format is transmitted in a precoding-based mode, and PDCCH information corresponding to the second DCI format is transmitted in a single-antenna port mode or transmit diversity mode based on non-precoding; and detecting, by the UE and in a subframe, the PDCCH information corresponding to the first DCI format and the second DCI format according to the mode in which the PDCCH information is transmitted. obtaining, by a user equipment UE, a transmission mode of a data channel configured by a base station; determining, by the UE, a first downlink control information DCI format and a second DCI format that are corresponding to the transmission mode of the data channel, wherein physical downlink control channel PDCCH information corresponding to the first DCI format is transmitted in a precoding-based mode, and PDCCH information corresponding to the second DCI format is transmitted in a single-antenna port mode or transmit diversity mode based on non-precoding; and detecting, by the UE and in a subframe, the PDCCH information corresponding to the first DCI format and the second DCI format according to the mode in which the PDCCH information is transmitted.
A method for the controlled swivel-bending of workpieces for the production of formed parts by a swivel-bending assembly having at least one bending tool acting on a contact surface of a bending leg of the workpiece, which bending tool is arranged in an adjustable tool carrier with at least two degrees of freedom, comprising: generation of path coordinates and/or path movement data for an adjustment movement of the at least one bending tool by means of a control device, wherein the adjustment movement is made up of a sequence of movement portions, and transfer of the generated path coordinates and/or path movement data to at least one adjustment drive for the at least one bending tool or the adjustable tool carrier, characterized in that the swivel-bending assembly comprises at least one sensor device connected to an evaluation logic system which is designed to determine a relative movement between the bending leg and the at least one bending tool, wherein the relative movement involves a change in the angular orientation between the bending leg and the at least one bending tool or a sliding movement of the at least one bending tool along the contact surface of the bending leg, relative movement data determined in an upstream movement portion are transmitted to the control device by the at least one sensor device and the path coordinates and/or path movement data for a downstream movement portion are generated using the relative movement data determined, so that sliding movements along the contact surface are minimized as far as possible. generation of path coordinates and/or path movement data for an adjustment movement of the at least one bending tool by means of a control device, wherein the adjustment movement is made up of a sequence of movement portions, and transfer of the generated path coordinates and/or path movement data to at least one adjustment drive for the at least one bending tool or the adjustable tool carrier, characterized in that the swivel-bending assembly comprises at least one sensor device connected to an evaluation logic system which is designed to determine a relative movement between the bending leg and the at least one bending tool, wherein the relative movement involves a change in the angular orientation between the bending leg and the at least one bending tool or a sliding movement of the at least one bending tool along the contact surface of the bending leg, relative movement data determined in an upstream movement portion are transmitted to the control device by the at least one sensor device and the path coordinates and/or path movement data for a downstream movement portion are generated using the relative movement data determined, so that sliding movements along the contact surface are minimized as far as possible.
A method for reducing noise in a sound signal of a hearing device, the method comprising: receiving an inside channel sound signal (Si) from a first microphone in an ear channel of a user of the hearing device, a first outside channel sound signal (S O1) from a second microphone outside of the ear channel and a second outside channel sound signal (S O2) from a third microphone outside of the ear channel; determining a desired signal (S Des) and a disturb signal (S Dis) from the first and second outside channel sound signals (S O1, S O2); determining a frequency band dependent weight factor (ω) by dividing a magnitude value of the desired signal (S Des) in a frequency band through the sum of the magnitude value of the desired signal (S Des) in the frequency band and a magnitude value of the disturb signal (S Dis) in the frequency band, wherein the magnitude value of the desired signal (S Des) and the magnitude value of the disturb signal (S Dis) are averaged with a moving average before the frequency band dependent weight factor (ω) is determined from them; generating a noise reduced sound signal (S A) by multiplying the inside channel sound signal (Si) with the weight factor (ω). receiving an inside channel sound signal (Si) from a first microphone in an ear channel of a user of the hearing device, a first outside channel sound signal (S O1) from a second microphone outside of the ear channel and a second outside channel sound signal (S O2) from a third microphone outside of the ear channel; determining a desired signal (S Des) and a disturb signal (S Dis) from the first and second outside channel sound signals (S O1, S O2); determining a frequency band dependent weight factor (ω) by dividing a magnitude value of the desired signal (S Des) in a frequency band through the sum of the magnitude value of the desired signal (S Des) in the frequency band and a magnitude value of the disturb signal (S Dis) in the frequency band, wherein the magnitude value of the desired signal (S Des) and the magnitude value of the disturb signal (S Dis) are averaged with a moving average before the frequency band dependent weight factor (ω) is determined from them; generating a noise reduced sound signal (S A) by multiplying the inside channel sound signal (Si) with the weight factor (ω).
A linkage turbine for an automatic opening/closing driving mechanism, wherein the linkage turbine is integrally and concentrically provided with a turbine driven portion, a gear driving portion and a cam linkage portion successively in the direction of its rotation central axis; turbine teeth to be fitted with a driving turbine are provided on the whole peripheral wall of the turbine driven portion and a plurality of driving teeth are provided on part of the peripheral wall of the gear driving portion characterized in that a reset groove, a recess, a transition portion and a boss are successively provided on the periphery of the cam linkage portion.
A system for repositioning teeth of a patient from an initial tooth arrangement to a final tooth arrangement, the system comprising a plurality of incremental position adjustment appliances, each comprising an arrangement of cavities shaped to receive and reposition teeth of the patient, wherein the cavities in at least one appliance in the system have a different geometry than that of at least one other appliance in the system, and wherein at least some of the appliances in the system are successively worn by the patient to exert force on at least one tooth and move the teeth of the patient from a first arrangement to a successive arrangement different from the first arrangement, characterized in that the system comprises: a first multilayer shell with a bending stiffness factor less than about 0.1 GPa*mm 3 as measured within 2 mm of the trimmed line of incisors on the labial side of the shell and an elastic modulus no greater than about 1.5 GPa and a second shell with a bending stiffness factor of about or greater than 0.1 GPa*mm 3 as measured within 2 mm of the trimmed line of incisors on the labial side of the shell, the bending stiffness factor being defined as a product of the average elastic modulus and the cube of the thickness of the appliance at the selected portion thereof. a first multilayer shell with a bending stiffness factor less than about 0.1 GPa*mm 3 as measured within 2 mm of the trimmed line of incisors on the labial side of the shell and an elastic modulus no greater than about 1.5 GPa and a second shell with a bending stiffness factor of about or greater than 0.1 GPa*mm 3 as measured within 2 mm of the trimmed line of incisors on the labial side of the shell, the bending stiffness factor being defined as a product of the average elastic modulus and the cube of the thickness of the appliance at the selected portion thereof.
A method for detecting colorectal carcinoma in a subject, comprising determining the expression level of RASSF2 in a biological sample selected from the group consisting of blood plasma, blood serum, whole blood, and blood cells, isolated from said subject, wherein said expression level is determined by detecting the presence or absence of CpG methylation within said gene, wherein the presence of methylation indicates the presence of colorectal carcinoma.
A wireless outdoor-indoor multiple-input multiple-output, MIMO, communication system for communicating with user equipment located inside a physical structure, comprising: - a node adapted for wireless MIMO communication, having at least two node antennas, - at least two outdoor-indoor repeaters (107,108) having at least one repeater antenna (104,106) each, provided outside said physical structure, wherein each of said at least two outdoor-indoor repeaters is connected to at least one respective distributed antenna system, DASs, (109,110), provided inside said physical structure, wherein - each of said at least two outdoor-indoor repeaters (107, 108) is connected to the same number of respective DASs as the number of repeater antennas, said repeaters (107,108) being adapted for line of sight, LOS, MIMO communication with said node over a first radio channel, the repeaters (107, 108) being provided on the same physical structure and spaced well-apart whereby the first radio channel between the node and the repeaters (107,108) support a rank that is equal to the number of repeater antennas (104,106), - said respective DASs (109,110) are arranged to provide the same indoor coverage of the same interior space in said physical structure from each repeater (107,108), and adapted for indoor MIMO communication over a second radio channel with user equipment located inside said physical structure, and a diversity of the DASs (109,110) is configured whereby said second radio channel between the repeaters (107,108) and user equipment located inside said physical structure support a rank that is equal to the number of repeater antennas (104,106). - a node adapted for wireless MIMO communication, having at least two node antennas, - at least two outdoor-indoor repeaters (107,108) having at least one repeater antenna (104,106) each, provided outside said physical structure, wherein each of said at least two outdoor-indoor repeaters is connected to at least one respective distributed antenna system, DASs, (109,110), provided inside said physical structure, wherein - each of said at least two outdoor-indoor repeaters (107, 108) is connected to the same number of respective DASs as the number of repeater antennas, said repeaters (107,108) being adapted for line of sight, LOS, MIMO communication with said node over a first radio channel, the repeaters (107, 108) being provided on the same physical structure and spaced well-apart whereby the first radio channel between the node and the repeaters (107,108) support a rank that is equal to the number of repeater antennas (104,106), - said respective DASs (109,110) are arranged to provide the same indoor coverage of the same interior space in said physical structure from each repeater (107,108), and adapted for indoor MIMO communication over a second radio channel with user equipment located inside said physical structure, and
A liquid composition comprising: a) ≥ 10 wt.-% to ≤ 95 wt.-% of at least one alcohol, wherein the alcohol is ethanol, 1-propanol, 2-propanol, n-butan-1-ol, n-butan-2-ol, tert-butanol, and/or pentan-1-ol, pentan-2-ol, pentan-3-ol, 3-methylbutan-2-ol, and/or 2,2-dimethylpropanol, hexan-1-ol, hexan-2-ol, hexan-3-ol and/or isomers thereof; b) ≥ 0.1 wt.-% to ≤ 10 wt.-% at least one hydrocarbon or hydrocarbon mixture, wherein the hydrocarbon or hydrocarbon mixture comprises pentane, hexane, heptanes and/or petroleum ether; c) ≥ 0.1 wt.-% to ≤ 30 wt.-% of at least one peroxide agent; d) water; wherein the components are selected such that the total amount of all components does not exceed 100 wt.-% and the wt.-% of the components are based on the total weight amount of the composition. a) ≥ 10 wt.-% to ≤ 95 wt.-% of at least one alcohol, wherein the alcohol is ethanol, 1-propanol, 2-propanol, n-butan-1-ol, n-butan-2-ol, tert-butanol, and/or pentan-1-ol, pentan-2-ol, pentan-3-ol, 3-methylbutan-2-ol, and/or 2,2-dimethylpropanol, hexan-1-ol, hexan-2-ol, hexan-3-ol and/or isomers thereof; b) ≥ 0.1 wt.-% to ≤ 10 wt.-% at least one hydrocarbon or hydrocarbon mixture, wherein the hydrocarbon or hydrocarbon mixture comprises pentane, hexane, heptanes and/or petroleum ether; c) ≥ 0.1 wt.-% to ≤ 30 wt.-% of at least one peroxide agent; d) water;
Device for feeding printed products of different thicknesses to a downstream cutting apparatus, wherein the printed products are present in stitched, partially stitched or unstitched form or is deliverable bound by an adhesive binder or a thread-stitching machine, characterised in that the feeding of the printed products is performable by a feeding device, that the feeding device has at least an upper and a lower conveyor belt (2, 6) together forming a pair of conveyor belts (2, 6), that whereas the lower conveyor belt has a stationary or quasi-stationary transport plane, the upper conveyor belt is operatively connected to a belt transport device initiating immediate vertical adjustment of the upper conveyor belt as a function of the thickness of the printed product to be conveyed and that the upper conveyor belt operatively connected to the lower conveyor belt effects transport of the printed product by applying contact pressure thereto.
A composition comprising: (a) tetrakis(hydroxymethyl)phosphonium sulfate (THPS); (b) water; and (c) 1,2-propanediol; wherein weight percentages of (a), (b) and (c) are within an area on a ternary phase diagram bounded by five points: 20% THPS/40% water/40% 1,2-propanediol; 20% THPS/20% water/60% 1,2-propanediol; 65% THPS/22% water/13% 1,2-propanediol; 65% THPS/25% water/10% 1,2-propanediol; and 40% THPS/28% water/32% 1,2-propanediol, or comprising (a), (b), (c) and no more than 5 wt% ingredients other than (a), (b) or (c), wherein for any such composition comprising ingredients other than (a), (b) and (c), when the weight percentages of THPS, water and 1,2-propanediol are normalized to 100%, the normalized weight percentages of (a), (b) and (c) are within the area on a ternary phase diagram bounded by the points as hereinbefore defined.