mhurhangee/patent-ind-claim-en huggingface dataset:
Agricultural distributing machine with a distributor linkage and with a device for active absorption of vibrations arising in the distributor linkage , said device comprising a sensor for detecting a vibration of the distributor linkage , an electronic control device connected to the sensor , and an actuator , capable of being actuated by the control device , for relocating a mobile mass which is coupled with the distributor linkage , wherein the control device is capable of being operated to drive the actuator in the sense of a lessening of a vibration of the distributor linkage , detected with the sensor , characterized in that the actuator has been set up to relocate the mass along the direction of the vibration to be damped.
A handle for a bicycle handlebar, comprising a sleeve that can be slid onto the handlebar, wherein the sleeve defines a central axis mH which is coincident with the central axis of the bicycle handlebar, wherein a plug serving as an end cap or accessory holder is inserted into the sleeve , wherein the sleeve comprises a receptacle portion for the plug for this purpose, wherein the receptacle portion defines an insertion direction for the plug , whereby a central axis mA of the receptacle portion is defined; characterized in that the central axis mA of the receptacle portion lies at an oblique angle α between 3° and 50° relative to the central axis mH.
An object detection device comprising: a light output unit that outputs a first signal (Lm) toward an object (O, O1 to O6); a plurality of light detection units (143-1 to 143-n) each detecting a second signal (Lr) generated when the first signal (Lm) is reflected by the object (O, O1 to O6) as a signal representing a distance to the object (O, O1 to O6) present in an observed area and a shape of the object (O, O1 to O6); characterized in that it further comprises a data acquiring unit that acquires, from each of the plurality of light detection units (143-1 to 143-n), a detection signal waveform (W, Wm) represented as a change in an intensity of the second signal (Lr) with respect to time; and an object information determining unit that determines a presence range of the object (O, O1 to O6) by determining whether two or more arbitrary light detection units (143-1 to 143-n) correspond to the same object or different objects on the basis of the detection signal waveform (W, Wm) by comparison of detection signal waveforms (W, Wm) acquired from the two or more arbitrary different light detection units (143-1 to 143-n). a light output unit that outputs a first signal (Lm) toward an object (O, O1 to O6); a plurality of light detection units (143-1 to 143-n) each detecting a second signal (Lr) generated when the first signal (Lm) is reflected by the object (O, O1 to O6) as a signal representing a distance to the object (O, O1 to O6) present in an observed area and a shape of the object (O, O1 to O6); characterized in that it further comprises a data acquiring unit that acquires, from each of the plurality of light detection units (143-1 to 143-n), a detection signal waveform (W, Wm) represented as a change in an intensity of the second signal (Lr) with respect to time; and an object information determining unit that determines a presence range of the object (O, O1 to O6) by determining whether two or more arbitrary light detection units (143-1 to 143-n) correspond to the same object or different objects on the basis of the detection signal waveform (W, Wm) by comparison of detection signal waveforms (W, Wm) acquired from the two or more arbitrary different light detection units (143-1 to 143-n).
A control method of an electronic device for performing joint transmission, the method comprising: searching for access points, APs, to retrieve a plurality of APs; determining a modulation and coding scheme, MCS, for data transmission based on a signal strength of at least two APs among the plurality of APs; determining the at least two APs as candidate APs for joint transmission by comparing a joint transmission gain time according to the determined MCS and a synchronization time for the at least two APs to perform joint transmission, wherein the joint transmission gain time is calculated by calculating a difference between a first data reception time at which a predetermined size of data is received based on the determined MCS and a second data reception time at which the predetermined size of data is received from an AP having a strongest signal strength, and the synchronization time is identified based on a difference in time at which data is received from the at least two APs; transmitting information about the candidate APs to an AP control device ; and performing data communication with joint APs, which are determined to perform joint transmission by the AP control device , among the candidate APs. searching for access points, APs, to retrieve a plurality of APs; determining a modulation and coding scheme, MCS, for data transmission based on a signal strength of at least two APs among the plurality of APs; determining the at least two APs as candidate APs for joint transmission by comparing a joint transmission gain time according to the determined MCS and a synchronization time for the at least two APs to perform joint transmission, wherein the joint transmission gain time is calculated by calculating a difference between a first data reception time at which a predetermined size of data is received based on the determined MCS and a second data reception time at which the predetermined size of data is received from an AP having a strongest signal strength, and the synchronization time is identified based on a difference in time at which data is received from the at least two APs; transmitting information about the candidate APs to an AP control device ; and performing data communication with joint APs, which are determined to perform joint transmission by the AP control device , among the candidate APs.
A linear encoder for a linear position measurement device having a stationary part and a moving part , the encoder designed to measure and encode a relative displacement between said stationary part and said moving part along a linear travel extent between a first travel end location and a second travel end location; the encoder comprising: a plurality of machine sensible elements , said elements laid out on a first of said parts in a predetermined pattern of known shape, the predetermined pattern defining a plurality of consecutively assigned segment lengths extending in the measurement direction, said lengths differing from one another, each segment thus having a respective length, a respective property, and a segment position at which one of said machine sensible element of the respective length and property is fixed, the shape generating a code, the code comprising a property changing along a length thereof; and a plurality of evenly placed sensors arranged along a second of said parts along an entirety of said linear travel extent between said first travel end location and said second travel end location, the code length extending over a plurality of said evenly placed sensors, thereby to measure and encode said displacement using said pattern. a plurality of machine sensible elements , said elements laid out on a first of said parts in a predetermined pattern of known shape, the predetermined pattern defining a plurality of consecutively assigned segment lengths extending in the measurement direction, said lengths differing from one another, each segment thus having a respective length, a respective property, and a segment position at which one of said machine sensible element of the respective length and property is fixed, the shape generating a code, the code comprising a property changing along a length thereof; and a plurality of evenly placed sensors arranged along a second of said parts along an entirety of said linear travel extent between said first travel end location and said second travel end location, the code length extending over a plurality of said evenly placed sensors, thereby to measure and encode said displacement using said pattern.
A ceiling fan assembly comprising: a motor assembly having a rotating blade hub , and at least one fan blade mounted to the rotating blade hub having a blade span and a thickness , and defining an airfoil cross section including a leading edge and a trailing edge defining a chord therebetween, the ceiling fan assembly being characterized in that the at least one fan blade includes a thickness to corresponding chord ratio of 13.8%, the blade span of the at least one fan blade is 3.7m (12 feet), and the airfoil cross-section has a thickness of 2.46 centimeters (0.97 inches). a motor assembly having a rotating blade hub , and at least one fan blade mounted to the rotating blade hub having a blade span and a thickness , and defining an airfoil cross section including a leading edge and a trailing edge defining a chord therebetween, the ceiling fan assembly being characterized in that the at least one fan blade includes a thickness to corresponding chord ratio of 13.8%, the blade span of the at least one fan blade is 3.7m (12 feet), and the airfoil cross-section has a thickness of 2.46 centimeters (0.97 inches).
A process for making a biobased propylene glycol product at least in part from a carbohydrate-derived feed, wherein a feed comprised of a lactic acid ester is reacted in a liquid phase reaction in the presence of a catalyst with hydrogen, in a nonaqueous solvent in which lactide may be essentially wholly solubilized at the conditions under which the reaction is carried out; wherein (i) the feed consists of one or more esters of lactic acid and propylene glycol; or (ii) the feed comprises both of glycerol and a lactic acid ester, wherein said lactic acid ester is an ester of lactic acid and propylene glycol; and wherein said nonaqueous solvent is propylene glycol. (i) the feed consists of one or more esters of lactic acid and propylene glycol; or (ii) the feed comprises both of glycerol and a lactic acid ester, wherein said lactic acid ester is an ester of lactic acid and propylene glycol; and
A carbon dioxide electrolytic device, comprising: an electrolysis cell including an anode configured to oxidize water and thus form oxygen, an anode flow path facing the anode, a cathode configured to reduce carbon dioxide and thus form a carbon compound, a cathode flow path facing the cathode, and a separator between the anode and the cathode; a cooling flow path provided opposite to the anode flow path or the cathode flow path and connected in parallel to the anode flow path; an anode inflow path connecting an inlet of the anode flow path, an inlet of the cooling flow path, and an outlet of a liquid tank configured to store a liquid containing water; an anode outflow path connecting an outlet of the anode flow path, an outlet of the cooling flow path, and an inlet of the liquid tank; and a cooler configured to cool the anode outflow path. an electrolysis cell including an anode configured to oxidize water and thus form oxygen, an anode flow path facing the anode, a cathode configured to reduce carbon dioxide and thus form a carbon compound, a cathode flow path facing the cathode, and a separator between the anode and the cathode; an anode configured to oxidize water and thus form oxygen, an anode flow path facing the anode, a cathode configured to reduce carbon dioxide and thus form a carbon compound, a cathode flow path facing the cathode, and a separator between the anode and the cathode; a cooling flow path provided opposite to the anode flow path or the cathode flow path and connected in parallel to the anode flow path; an anode inflow path connecting an inlet of the anode flow path, an inlet of the cooling flow path, and an outlet of a liquid tank configured to store a liquid containing water; an anode outflow path connecting an outlet of the anode flow path, an outlet of the cooling flow path, and an inlet of the liquid tank; and a cooler configured to cool the anode outflow path.
A method for reporting to an eNodeB a power headroom for a non-scheduled uplink component carrier, the method comprising the following steps performed by a user equipment: receiving resource assignment information for allocating an uplink resource or a downlink resource to the user equipment, the resource assignment information including a plurality of bits, wherein each of a plurality of component carriers corresponds to one bit of the plurality of bits, the one bit indicating whether a corresponding component carrier is to be activated or deactivated, and wherein when any one bit of the plurality of bits indicates that its corresponding component carrier is to be activated, the plurality of bits further indicate a request for a power headroom report; calculating a power headroom for a scheduled uplink component carrier based on the received resource assignment information; calculating a virtual power headroom for a non-scheduled uplink component carrier based on a pre-configured virtual uplink resource assignment for the non-scheduled uplink component carrier; and transmitting to the eNodeB the calculated power headroom for the scheduled uplink component carrier and the calculated virtual power headroom for the non-scheduled uplink component carrier using an activated component carrier. receiving resource assignment information for allocating an uplink resource or a downlink resource to the user equipment, the resource assignment information including a plurality of bits, wherein each of a plurality of component carriers corresponds to one bit of the plurality of bits, the one bit indicating whether a corresponding component carrier is to be activated or deactivated, and wherein when any one bit of the plurality of bits indicates that its corresponding component carrier is to be activated, the plurality of bits further indicate a request for a power headroom report; calculating a power headroom for a scheduled uplink component carrier based on the received resource assignment information; calculating a virtual power headroom for a non-scheduled uplink component carrier based on a pre-configured virtual uplink resource assignment for the non-scheduled uplink component carrier; and transmitting to the eNodeB the calculated power headroom for the scheduled uplink component carrier and the calculated virtual power headroom for the non-scheduled uplink component carrier using an activated component carrier.
A lubricating zinc complex grease composition consisting of : a) base oils; b) saponifiable materials selected from 12-hydroxystearic acid, stearic acid, or mixtures thereof; c) zinc oxide; and d) complexing agents selected from dicarboxylic acids. a) base oils; b) saponifiable materials selected from 12-hydroxystearic acid, stearic acid, or mixtures thereof; c) zinc oxide; and d) complexing agents selected from dicarboxylic acids.
A vertical joint system (10a-d) for a surface covering panel (P) having an upper surface which is visible when the surface covering is laid and an opposed lower surface and a plurality of sides located between the upper and lower surfaces , the vertical joint system comprising: a male part along a first of the sides (20/24), the male part having a male protrusion and an adjacent male recess ; a female part along a second of the sides (22/26), the second side being opposite to the first side, the female part having a female recess and an adjacent female protrusion ; the male and female parts being relatively configured by the female protrusion having a concave recess configured to engage the male protrusion , wherein a curved corner portion of a bottom and inner end of the male protrusion is continuously extending to a planar surface of the inner end of the male protrusion , so that during engagement of like first and second panels each provided with the vertical joint system by bringing the male part of a first panel toward the female part of the second panel in a direction perpendicular to a plane the male part while maintaining contact with the female part also moves laterally toward, then away from and subsequently toward the second panel, characterized in that the vertical joint is configured so that when the male and female parts of respective vertical joint systems are coupled together with the respective lower surfaces in a common plane, a continuous gap is provided between the inner most female surface and the outer most male surface from the datum surface to the planar surface . a male part along a first of the sides (20/24), the male part having a male protrusion and an adjacent male recess ; a female part along a second of the sides (22/26), the second side being opposite to the first side, the female part having a female recess and an adjacent female protrusion ; the male and female parts being relatively configured by the female protrusion having a concave recess configured to engage the male protrusion , wherein a curved corner portion of a bottom and inner end of the male protrusion is continuously extending to a planar surface of the inner end of the male protrusion , so that during engagement of like first and second panels each provided with the vertical joint system by bringing the male part of a first panel toward the female part of the second panel in a direction perpendicular to a plane the male part while maintaining contact with the female part also moves laterally toward, then away from and subsequently toward the second panel, characterized in that the vertical joint is configured so that when the male and female parts of respective vertical joint systems are coupled together with the respective lower surfaces in a common plane, a continuous gap is provided between the inner most female surface and the outer most male surface from the datum surface to the planar surface .
A process for preparing calcined, iron- and chrome-containing pellets comprising the steps: a) mixing chrome ore material, Chrome Ore Process Residue (COPR) and saccharide binder and forming the obtained mixture into pellets, b) optionally drying the pellets obtained by step a), and c) calcining the pellets, wherein the pellets obtained by step a) comprise less than 3 wt% of carbonaceous reductant based on the amount of chrome ore material, COPR, saccharide binder and carbonaceous reductant, wherein the COPR contains • chrome(lll) oxide: 7 to 13 wt%, • aluminum oxide: 10 to 30 wt%, • iron(II) oxide: 36 to 44 wt%, • iron(III) oxide: > 0.5% wt%, • magnesium oxide: 9 to 18 wt%, • calcium oxide: < 10 wt%, • silicon oxide: 0 to 3 wt%, • vanadium oxide: < 1 wt%, • sodium oxide: 0 to 5 wt%, and • sodium monochromate: 0 to 4.7 wt%, wherein the calcining in step c) is carried out at oven temperatures of 1250 °C to 1600 °C for periods of 1 minute to 8 hours. a) mixing chrome ore material, Chrome Ore Process Residue (COPR) and saccharide binder and forming the obtained mixture into pellets, b) optionally drying the pellets obtained by step a), and c) calcining the pellets, wherein the pellets obtained by step a) comprise less than 3 wt% of carbonaceous reductant based on the amount of chrome ore material, COPR, saccharide binder and carbonaceous reductant, wherein the COPR contains • chrome(lll) oxide: 7 to 13 wt%, • aluminum oxide: 10 to 30 wt%, • iron(II) oxide: 36 to 44 wt%, • iron(III) oxide: > 0.5% wt%, • magnesium oxide: 9 to 18 wt%, • calcium oxide: < 10 wt%, • silicon oxide: 0 to 3 wt%, • vanadium oxide: < 1 wt%, • sodium oxide: 0 to 5 wt%, and • sodium monochromate: 0 to 4.7 wt%, • chrome(lll) oxide: 7 to 13 wt%, • aluminum oxide: 10 to 30 wt%, • iron(II) oxide: 36 to 44 wt%, • iron(III) oxide: > 0.5% wt%, • magnesium oxide: 9 to 18 wt%, • calcium oxide: < 10 wt%, • silicon oxide: 0 to 3 wt%, • vanadium oxide: < 1 wt%, • sodium oxide: 0 to 5 wt%, and • sodium monochromate: 0 to 4.7 wt%, wherein the calcining in step c) is carried out at oven temperatures of 1250 °C to 1600 °C for periods of 1 minute to 8 hours.
An electricity generation system comprising: a power turbine to be driven by exhaust gas generated in a main engine ; a steam turbine to be driven by steam generated by the exhaust gas from the main engine; a power turbine control valve that controls an amount of the exhaust gas to be introduced to the power turbine ; a steam turbine speed governing valve that adjusts an amount of steam to be supplied to the steam turbine; a load sharing control section that controls load sharing between an output of the power turbine and an output of the steam turbine and sets a target output of the steam turbine; and a turbine control section including a governor that performs governor control of the steam turbine speed governing valve based on the target output of the steam turbine, characterised in that the turbine control section is configured to calculate a target output of the power turbine based on the target output of the steam turbine and a load capacity of the steam turbine, and when an electricity demand varies, a speed of operation of the power turbine control valve is multiplied by a gain set based on a deviation of an actual output of the power turbine from the target output of the power turbine. a power turbine to be driven by exhaust gas generated in a main engine ; a steam turbine to be driven by steam generated by the exhaust gas from the main engine; a power turbine control valve that controls an amount of the exhaust gas to be introduced to the power turbine ; a steam turbine speed governing valve that adjusts an amount of steam to be supplied to the steam turbine; a load sharing control section that controls load sharing between an output of the power turbine and an output of the steam turbine and sets a target output of the steam turbine; and a turbine control section including a governor that performs governor control of the steam turbine speed governing valve based on the target output of the steam turbine, characterised in that the turbine control section is configured to calculate a target output of the power turbine based on the target output of the steam turbine and a load capacity of the steam turbine, and when an electricity demand varies, a speed of operation of the power turbine control valve is multiplied by a gain set based on a deviation of an actual output of the power turbine from the target output of the power turbine.