mhurhangee/patent-ind-claim-en huggingface dataset:
Complex comprising Pt and a compound of formula (I) where R 1 , R 2 , R 3 , R 4 are each independently selected from -(C 1 -C 12 )-alkyl, -(C 3 -C 12 )-cycloalkyl, -(C 3 -C 12 )-heterocycloalkyl, -(C 6 -C 20 )-aryl, -(C 6 -C 20 )-heteroaryl; at least one of the R 1 , R 2 , R 3 , R 4 radicals is a - (C 6 -C 20 )-heteroaryl radical having at least six ring atoms; and R 1 , R 2 , R 3 , R 4 , if they are -(C 1 -C 12 )-alkyl, -(C 3 -C 12 )-cycloalkyl, -(C 3 -C 12 )-heterocycloalkyl, -(C 6 -C 20 )-aryl or -(C 6 -C 20 ) -heteroaryl, may each independently be substituted by one or more substituents selected from: -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, -OH, -NH 2 , halogen. R 1 , R 2 , R 3 , R 4 are each independently selected from -(C 1 -C 12 )-alkyl, -(C 3 -C 12 )-cycloalkyl, -(C 3 -C 12 )-heterocycloalkyl, -(C 6 -C 20 )-aryl, -(C 6 -C 20 )-heteroaryl; at least one of the R 1 , R 2 , R 3 , R 4 radicals is a - (C 6 -C 20 )-heteroaryl radical having at least six ring atoms; and R 1 , R 2 , R 3 , R 4 , if they are -(C 1 -C 12 )-alkyl, -(C 3 -C 12 )-cycloalkyl, -(C 3 -C 12 )-heterocycloalkyl, -(C 6 -C 20 )-aryl or -(C 6 -C 20 ) -heteroaryl, may each independently be substituted by one or more substituents selected from: -(C 1 -C 12 )-alkyl, -O-(C 1 -C 12 )-alkyl, -OH, -NH 2 , halogen.
Method for ascertaining metadata for a controllable component in a building with a plurality of different rooms ; wherein the method comprises - prompting a mobile sensor unit to be moved in a first room ; - causing a measurable state change of the controllable component ; - capturing sensor data by means of the mobile sensor unit in the first room of the building ; - determining , on the basis of the sensor data, whether or not the controllable component is located in the first room ; and - if it was determined on the basis of the sensor data that the controllable component is located in the first room : storing metadata for the controllable component , which shows that the controllable component is located in the first room ; - if it was determined that the controllable component is not located in the first room : sequentially capturing sensor data in multiple different rooms of the plurality of rooms and determining, on the basis of the sensor data from the different rooms , the room of the plurality of rooms of the building in which the controllable component is located. - prompting a mobile sensor unit to be moved in a first room ; - causing a measurable state change of the controllable component ; - capturing sensor data by means of the mobile sensor unit in the first room of the building ; - determining , on the basis of the sensor data, whether or not the controllable component is located in the first room ; and - if it was determined on the basis of the sensor data that the controllable component is located in the first room : storing metadata for the controllable component , which shows that the controllable component is located in the first room ; - if it was determined that the controllable component is not located in the first room : sequentially capturing sensor data in multiple different rooms of the plurality of rooms and determining, on the basis of the sensor data from the different rooms , the room of the plurality of rooms of the building in which the controllable component is located.
A computer implemented method for generating an estimated depth map for usage in constructing a three-dimensional representation (452/462) of an object , based on captured image data of the object comprising a plurality of images, the method comprising: warping a set of target images, resulting in warped target images, wherein the set of target images is selected from the plurality of images; characterized in that : determining a difference between each warped target image and a reference image, wherein the reference image is from the plurality of images; determining , for each warped target image, an alpha mask comprising per-pixel weights; and updating an initialized depth map based on alpha mask, resulting in the estimated depth map. warping a set of target images, resulting in warped target images, wherein the set of target images is selected from the plurality of images; characterized in that : determining a difference between each warped target image and a reference image, wherein the reference image is from the plurality of images; determining , for each warped target image, an alpha mask comprising per-pixel weights; and updating an initialized depth map based on alpha mask, resulting in the estimated depth map. determining a difference between each warped target image and a reference image, wherein the reference image is from the plurality of images; determining , for each warped target image, an alpha mask comprising per-pixel weights; and updating an initialized depth map based on alpha mask, resulting in the estimated depth map.
A method for producing a high temperature bearing component, the method comprising: obtaining a powder mixture containing a superalloy powder admixed with hard wear particles; consolidating the powder mixture utilizing a Spark Plasma Sintering (SPS) process during which the powder mixture is compressed into a sintered blank having a near net shape, while an electrical current is conducted through the powder mixture to heat the powder mixture to a sintering temperature; and machining the sintered blank to yield a final shape of the high temperature bearing component; characterized in that the SPS process is carried-out utilizing an SPS apparatus having an annular die cavity into which the powder mixture is loaded and an annular piece being conformally received in the annulus bound by the sidewall and the inner cylinder of the die for forming into the sintered blank; further characterized in that , when loaded into the annular die cavity of the SPS apparatus, the hard wear particles are evenly dispersed throughout the powder mixture and the powder mixture has a mean particle size between 5 and 15 microns; and further characterized in that the high temperature bearing component is a race (62 or 64) of a rolling element bearing . obtaining a powder mixture containing a superalloy powder admixed with hard wear particles; consolidating the powder mixture utilizing a Spark Plasma Sintering (SPS) process during which the powder mixture is compressed into a sintered blank having a near net shape, while an electrical current is conducted through the powder mixture to heat the powder mixture to a sintering temperature; and machining the sintered blank to yield a final shape of the high temperature bearing component; characterized in that the SPS process is carried-out utilizing an SPS apparatus having an annular die cavity into which the powder mixture is loaded and an annular piece being conformally received in the annulus bound by the sidewall and the inner cylinder of the die for forming into the sintered blank; further characterized in that , when loaded into the annular die cavity of the SPS apparatus, the hard wear particles are evenly dispersed throughout the powder mixture and the powder mixture has a mean particle size between 5 and 15 microns; and further characterized in that the high temperature bearing component is a race (62 or 64) of a rolling element bearing .
An iron comprising at least one water chamber characterized by a plurality of piezoelectric members provided in the water chamber that vibrate water in high frequencies and break it into micron-sized droplets to generate cold water steam, at least one control interface to adjust cold water steam generation speed, and a control unit connected to the control interface, adapted to activate at least one piezoelectric member upon each cold water steam generation speed step being switched up, and to deactivate at least one piezoelectric member upon each cold water steam generation speed step being switched down.
Pneumatic vehicle tyre having a tread with at least one profile block row which is divided into a multiplicity of profile blocks by transverse channels having channel flanks which extend at an angle (α, β) of up to 50° with respect to the axial direction, wherein transverse channels are provided, in each of which there is formed a base elevation (8, 8 I ) which locally reduces the depth (t 1 ) of the transverse channel and which connects successive profile blocks in a circumferential direction to one another, wherein the base elevation (8, 8 I ) has at least two base elevation parts of different maximum height (h max , a , h max , bc ), characterized in that , centrally on each of the base elevation parts , there is formed at least one groove which runs in the direction of extent of the transverse channel and which emerges from the respective base elevation part at least on one side and which has a depth (t N1 , t N2 ) of 0.5 mm to 3.0 mm and a width (b N1 , b N2 ) of 35% to 50% of the width (b 1 ) of the associated transverse channel in the radial direction.
A method for controlling multiple switching devices (15a-d, 75a-b) of a multilevel converter , the multilevel converter comprising a plurality of power cells for supplying power to one or more phases, each power cell comprising the multiple switching devices (15a-d, 75a-b), wherein the method comprising: providing a plurality of carrier signals (C1-C6) and a reference signal , the reference signal comprising a waveform range divided in 2N contiguous bands (B1-B6) for a converter with N cells per phase and each band (B1-B6) occupies 1/N of a maximum modulation index m, dynamically allocating the plurality of carrier signals (C1-C6) to the multiple switching devices (15a-d, 75a-b), and generating pulse width modulation signals to generate switching events of the multiple switching devices (15a-d, 75a-b) based on a comparison of dynamically allocated carrier signals (C1-C6) with the reference signal , wherein the plurality of carrier signals (C1-C6) comprises a phase shift between the carrier signals (C1-C6), and wherein the plurality of carrier signals (C1-C6) are dynamically allocated to the multiple switching devices (15a-d, 75a-b) such that for each switching device (15a-d, 75a-b) the plurality of carrier signals (C1-C6) are rotated and selected based on a position of the reference signal with respect to the bands (B1-B6). providing a plurality of carrier signals (C1-C6) and a reference signal , the reference signal comprising a waveform range divided in 2N contiguous bands (B1-B6) for a converter with N cells per phase and each band (B1-B6) occupies 1/N of a maximum modulation index m, dynamically allocating the plurality of carrier signals (C1-C6) to the multiple switching devices (15a-d, 75a-b), and generating pulse width modulation signals to generate switching events of the multiple switching devices (15a-d, 75a-b) based on a comparison of dynamically allocated carrier signals (C1-C6) with the reference signal , wherein the plurality of carrier signals (C1-C6) comprises a phase shift between the carrier signals (C1-C6), and wherein the plurality of carrier signals (C1-C6) are dynamically allocated to the multiple switching devices (15a-d, 75a-b) such that for each switching device (15a-d, 75a-b) the plurality of carrier signals (C1-C6) are rotated and selected based on a position of the reference signal with respect to the bands (B1-B6).
Method for data transmission from a wireless device (UE) to a base node (BS), the base node (BS) is part of a cellular network and is configured to support frequency division multiple access method, the frequency bandwidth receivable by the base node comprising a plurality of subcarriers , the wireless device (UE) is camping on the base node (BS), characterized in that : - for the base node, assigning to the wireless device a subcarrier of the plurality of subcarriers, - transmitting data from the wireless device to the base node for the period of at least one data service session using only the assigned subcarrier, whereby using for said data transmission a first modulation scheme on the assigned subcarrier different from the modulation scheme used for more than one of the plurality of the subcarriers by at least one second wireless device camping on said base node. - for the base node, assigning to the wireless device a subcarrier of the plurality of subcarriers, - transmitting data from the wireless device to the base node for the period of at least one data service session using only the assigned subcarrier,
Telescopic fork comprising a fixed base , a first intermediate slide telescopically movable with respect to the fixed base , a second intermediate slide and/or a third intermediate slide telescopically movable with respect to the first intermediate slide and/or with respect to the second intermediate slide , and a top slide in turn telescopically movable with respect to the third intermediate slide or with respect to the second intermediate slide , at least one of said movable slides being moved independently of the other slides by relative actuation means, characterized in that the telescopic fork comprises: - first actuation means (M1, 31) configured to transmit motion to the top slide through the movement of at least one intermediate slide ; - second actuation means (M2, 32) configured to transmit motion to at least one intermediate slide ; - third actuation means (M3, 33) configured to transmit motion to the first intermediate slide . - first actuation means (M1, 31) configured to transmit motion to the top slide through the movement of at least one intermediate slide ; - second actuation means (M2, 32) configured to transmit motion to at least one intermediate slide ; - third actuation means (M3, 33) configured to transmit motion to the first intermediate slide .
A method of detecting a valve opening or closing event in a solenoid operated reductant injector valve comprising the steps of: a) applying a voltage to said solenoid to actuate said valve, said voltage having a chopped waveform as a result of applying a modulation signal to a voltage drive ; b) sampling the resultant current through the solenoid at local maxima and minima; c) determining values of the difference between local maxima and subsequent local minima or between local minima and subsequent local maxima; d) determining the rate of change of said difference values; e) determining a valve opening or closing event based on the rate of change in step d). a) applying a voltage to said solenoid to actuate said valve, said voltage having a chopped waveform as a result of applying a modulation signal to a voltage drive ; b) sampling the resultant current through the solenoid at local maxima and minima; c) determining values of the difference between local maxima and subsequent local minima or between local minima and subsequent local maxima; d) determining the rate of change of said difference values; e) determining a valve opening or closing event based on the rate of change in step d).
Measuring device for determining and/or monitoring the point level or level of a medium in a container , consisting of at least a sensor unit and a transmitter unit , wherein at least one tilt sensor is integrated in the measuring device , said sensor determining the alignment of the measuring device and/or the sensor unit on the container , wherein the tilt sensor is designed in such a way that the alignment of the measuring device and/or of the sensor unit is constantly monitored as at least an alignment measured value in the operating phase of the measuring device , characterized in that the transmitter unit has a memory unit in which limit values for the alignment measured value are stored and in that the measuring device is designed to output an error message if an alignment measured value is determined that is outside the range of these limit values.
A drain strainer for a drainpipe comprising a first waste accumulating container of a tubular shape having a bottom with a first plurality of holes forming a first plane of holes , said first waste accumulating container being nested in and held by a second waste accumulating container which has a second plurality of holes through a side wall of the second waste accumulating container surrounding said first waste accumulating container , wherein a lower end of said second plurality of holes defines a maximum level of accumulating water (H) inside said second waste accumulating container , said first and second waste accumulating containers being coaxial, wherein said first waste accumulating container has a lower tubular portion located below said bottom; an opening of said tubular portion and a side wall of the tubular portion define a syphon arrangement with regard to the side wall having said second plurality of holes ; said first plane of holes is located above said maximum level of accumulating water (H) so that any debris is retained on said bottom away from the accumulated water; a first annular sealing element is coaxially located between said first and second waste accumulating containers and a second annular sealing element is coaxially locatable between said second waste accumulating container and said drain pipe ; both first and second annular sealing element are located in a first portion of the drain strainer above said first plane of holes ; and said first and second annular sealing element are deodorant impregnated. said first waste accumulating container has a lower tubular portion located below said bottom; an opening of said tubular portion and a side wall of the tubular portion define a syphon arrangement with regard to the side wall having said second plurality of holes ; said first plane of holes is located above said maximum level of accumulating water (H) so that any debris is retained on said bottom away from the accumulated water; a first annular sealing element is coaxially located between said first and second waste accumulating containers and a second annular sealing element is coaxially locatable between said second waste accumulating container and said drain pipe ; both first and second annular sealing element are located in a first portion of the drain strainer above said first plane of holes ; and said first and second annular sealing element are deodorant impregnated.
A method for making a two-layered product comprising a hydrophilic first material made from electrospun fibers connected to a hydrophobic second material made from electrospun fibers, and wherein said first material contains a drug substance, characterized in that - said method comprises using a press comprising a first surface and a second surface , and wherein said second surface has a temperature being higher than the temperature of said first surface , - said first and second material being arranged in a layered combination between the first and second surface of the press, wherein a pressure is provided towards said layered combination from said first and second surface of said press, and whereby said first material comes into contact with said first surface of said press, - wherein the combination of pressure between the first and second surface and the temperature of said second material connects said first and second material into said two-layered product . - said method comprises using a press comprising a first surface and a second surface , and wherein said second surface has a temperature being higher than the temperature of said first surface , - said first and second material being arranged in a layered combination between the first and second surface of the press, wherein a pressure is provided towards said layered combination from said first and second surface of said press, and whereby said first material comes into contact with said first surface of said press, - wherein the combination of pressure between the first and second surface and the temperature of said second material connects said first and second material into said two-layered product .
A method for estimating a position of an emitter or reflector in a sample , comprising the steps of: - illuminating (S1) the sample with excitation light at at least one set (TCP) of target coordinates (P i ), wherein the excitation light has an intensity distribution in the form of a donut; - detecting (S2) fluorescence photons or reflected photons for the individual target coordinates (P i ) of the set (TCP) of target coordinates (P i ); - determining a first uncalibrated estimated position of an emitter or reflector from the fluorescence photons or reflected photons detected for a first subset of the set (TCP) of target coordinates (P i ); - determining a second uncalibrated estimated position of the emitter or reflector from the fluorescence photons or reflected photons detected for a second subset of the set (TCP) of target coordinates (P i ); and - estimating (S3) a position of the emitter or reflector by comparing the first estimated position and the second estimated position, wherein the position estimated by comparing the first estimated position and the second estimated position is calibrated. - illuminating (S1) the sample with excitation light at at least one set (TCP) of target coordinates (P i ), wherein the excitation light has an intensity distribution in the form of a donut; - detecting (S2) fluorescence photons or reflected photons for the individual target coordinates (P i ) of the set (TCP) of target coordinates (P i ); - determining a first uncalibrated estimated position of an emitter or reflector from the fluorescence photons or reflected photons detected for a first subset of the set (TCP) of target coordinates (P i ); - determining a second uncalibrated estimated position of the emitter or reflector from the fluorescence photons or reflected photons detected for a second subset of the set (TCP) of target coordinates (P i ); and - estimating (S3) a position of the emitter or reflector by comparing the first estimated position and the second estimated position, wherein the position estimated by comparing the first estimated position and the second estimated position is calibrated.
Use as a vulcanization activator in compounds for the preparation of rubber products, of a silica based nanomaterial; said use being characterized in that said silica based nanomaterial consists of particles of a Zn salt chosen from between Zn 3 (PO 4 ) 2 and Zn 2 SiO 4 supported on the surface of silica nanoparticles.
System for continuous heat treatment of moving strip material comprising a convective hood for transverse installation; the convective hood comprises blowing nozzles for blowing hot gas against the moving strip in an arrangement transverse to the direction of movement of the strip material; and a first transverse suction zone for the suction of hot gas; wherein the first transverse suction zone comprises a first transverse section and a second transverse section ; wherein the fisrt transverse section is provided for suction of hot gas from at a first transversal section at the moving strip material and the second transverse section is provided for suction of hot gas from at a second transversal section at the moving strip material ; wherein the first transverse section and the second transverse section are provided at the same side downstream or upstream of the movement of the strip material from the blowing nozzles ; wherein the second transverse section is provided along the line for movement of the continuous strip material between the first transverse section and the blowing nozzles ; wherein the first transverse section comprises suction openings for suction of hot gas directly from outside the convective hood into the convective hood ; wherein said suction openings are in closed gas flow connection to a first manifold for recirculation of at least part, and preferably 100%, of this hot gas to the blowing nozzles for blowing the hot gas onto the continuous strip material ; wherein the second transverse section comprises suction openings for suction of hot gas directly from outside the convective hood into the convective hood ; wherein said suction openings are in closed gas flow connection to a second manifold for exhausting 100% of this hot gas outside of the convective hood .