mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising a polymer or oligomer (A) having a repeating unit with hole transport properties and also having a branched structure and 3 or more terminals and having at 3 or more of all of the terminals a thienyl group which is at least one type of structure selected from the group consisting of a structure represented by formula (Ia) shown below and a structure represented by formula (Ib) shown below, and an initiator (B), wherein the repeating unit with hole transport properties comprises repeating units represented by formulas to shown below in an amount of 25-95% by mole relative to all of the repeating units within the polymer or oligomer (A), wherein the proportion of repeating units represented by formulas to and formulas to shown below relative to all of the repeating units within the polymer or oligomer (A) is from 10 to 25% by mole, and wherein solubility of the composition is capable of being changed by applying heat, light, or both heat and light: wherein, in formulas (Ia) and (Ib), each of R 1 to R 3 independently represents a hydrogen atom or an alkyl group having from 1 to 10 carbon atoms, provided that at least one of R 1 to R 3 represents a hydrogen atom; wherein in formulas to , each E independently represents one of -R 1 , -OR 2 , -SR 3 , -OCOR 4 , -COOR 5 , -SiR 6 R 7 R 8 or the following formulas (a) to (c), each Ar independently represents either an arylene group or heteroarylene group of 2 to 30 carbon atoms, or an aryl group or heteroaryl group of 2 to 30 carbon atoms, each of X and Z represents a divalent linking group, Y represents a trivalent linking group, and x represents an integer of 0 to 2: wherein each of R 1 to R 11 represents hydrogen, a linear, cyclic or branched alkyl group of 1 to 22 carbon atoms, or an aryl group or heteroaryl group of 2 to 30 carbon atoms, and each of a, b and c represents an integer of 1 or greater; and wherein in formulas to , each Ar independently represents an arylene group or heteroarylene group of 2 to 30 carbon atoms, or an aryl group or heteroaryl group of 2 to 30 carbon atoms, and Y represents a divalent linking group; wherein in formulas to , W represents a trivalent linking group, each Ar independently represents an arylene group or heteroarylene group of 2 to 30 carbon atoms, and Z represents a carbon atom, a silicon atom, or a phosphorus atom.
A method of controlling a moving robot, the method comprising: moving (S510) based on a map including a plurality of regions; acquiring (S530) images from the plurality of regions through an image acquisition unit during the moving; sequentially generating nodes (n1, n2, n3, n4) along a movement path during the moving, wherein each node corresponds to a respective position in a traveling section of the moving robot; extracting, at each node, feature information, wherein the feature information is a descriptor which is based on feature points; characterised by extracting (S543), at each node, region feature information including a set of probability values of a recognition result of a region and a recognition result of an object based on an image acquired at the node; and storing (S550) the extracted region feature information in node information in connection with position information when a corresponding image is acquired, wherein the node information includes identification information, node coordinate information, the feature information and the region feature information of the corresponding node. moving (S510) based on a map including a plurality of regions; acquiring (S530) images from the plurality of regions through an image acquisition unit during the moving; sequentially generating nodes (n1, n2, n3, n4) along a movement path during the moving, wherein each node corresponds to a respective position in a traveling section of the moving robot; extracting, at each node, feature information, wherein the feature information is a descriptor which is based on feature points; characterised by extracting (S543), at each node, region feature information including a set of probability values of a recognition result of a region and a recognition result of an object based on an image acquired at the node; and storing (S550) the extracted region feature information in node information in connection with position information when a corresponding image is acquired, wherein the node information includes identification information, node coordinate information, the feature information and the region feature information of the corresponding node.
A method of constructing a wake-up signal for waking up one or more of a plurality of wireless communication receivers, wherein each of the plurality of wireless communication receivers is adapted to receive in accordance with respective standard, the method comprising: selecting a collection of sequences of symbols; dividing the collection of sequences into a plurality of groups, wherein all sequences of a group comprise a same first set of symbols; selecting one of the groups; letting the first set of symbols of the selected group indicate one or more standards corresponding to the one or more of the wireless communication receivers to be woken up; and constructing the wake-up signal based on a sequence of symbols of the selected group, characterized in that the collection of sequences corresponds to the code words of an error correcting code. selecting a collection of sequences of symbols; dividing the collection of sequences into a plurality of groups, wherein all sequences of a group comprise a same first set of symbols; selecting one of the groups; letting the first set of symbols of the selected group indicate one or more standards corresponding to the one or more of the wireless communication receivers to be woken up; and constructing the wake-up signal based on a sequence of symbols of the selected group, characterized in that the collection of sequences corresponds to the code words of an error correcting code.
An aqueous dispersion comprising: pigment colorant particles that are present in an amount of at least 5 weight % and up to and including 80 weight %; a dispersing polymer that is either a hexyloxy benzoic acid polymer or a polymer that is prepared from the Diels Alder adduct of 3-maleimidopropionic acid and furfuryl (meth)acrylate; and an aqueous medium, wherein the weight ratio of the pigment colorant particles to the dispersing polymer is from 19:1 to and including 2:1. pigment colorant particles that are present in an amount of at least 5 weight % and up to and including 80 weight %; a dispersing polymer that is either a hexyloxy benzoic acid polymer or a polymer that is prepared from the Diels Alder adduct of 3-maleimidopropionic acid and furfuryl (meth)acrylate; and an aqueous medium, wherein the weight ratio of the pigment colorant particles to the dispersing polymer is from 19:1 to and including 2:1.
A hair care appliance, comprising: a handle and a body movably coupled to one another at a joint such that the body is movable between a straight configuration in which the body is longitudinally aligned with a longitudinal axis of the handle and a bent configuration in which the body extends along an axis transverse to the longitudinal axis of the handle , the handle and the body having a fluid flow path (P) extending there through from an inlet in the handle to an outlet in the body , and a heater ; characterised in that a diverter is disposed in the body and configured to partition fluid in the fluid flow path (P) in both the straight and bent configurations, to provide a balanced fluid flow to upper and lower aspects of the heater ; and the heater is positioned in the body between the diverter and the outlet . a heater ; characterised in that a diverter is disposed in the body and configured to partition fluid in the fluid flow path (P) in both the straight and bent configurations, to provide a balanced fluid flow to upper and lower aspects of the heater ; and the heater is positioned in the body between the diverter and the outlet .
Sound system , comprising at least one monitoring device , a source device and a transmission medium , wherein the monitoring device is connected with the source device via the transmission medium , wherein the monitoring device is adapted to receive a monitoring signal sent by the source device , wherein the monitoring device is a passive device and adapted to send at least one harmonic of the monitoring signal back to the source device , wherein the monitoring device is adapted as an end of line device connected at an end of the transmission medium , wherein the monitoring signal is transferred via the transmission medium to the monitoring device , wherein the transmission medium is a wire or a cable, wherein the source device comprises a measurement unit for detecting the at least one harmonic sent by the monitoring device , characterised in that the harmonic sent by the monitoring device is the second harmonic. wherein the monitoring device is connected with the source device via the transmission medium , wherein the monitoring device is adapted to receive a monitoring signal sent by the source device , wherein the monitoring device is a passive device and adapted to send at least one harmonic of the monitoring signal back to the source device , wherein the monitoring device is adapted as an end of line device connected at an end of the transmission medium , wherein the monitoring signal is transferred via the transmission medium to the monitoring device , wherein the transmission medium is a wire or a cable, wherein the source device comprises a measurement unit for detecting the at least one harmonic sent by the monitoring device , characterised in that the harmonic sent by the monitoring device is the second harmonic.
An integrated circuit to drive a plurality of actuators during a non-reset operating condition, the integrated circuit comprising: a reset input to receive a reset signal activated for a duration, wherein the reset signal generates a reset condition in the integrated circuit during which the non-reset operating condition is blocked; and a monitor circuit operably coupled to the reset input to indicate if the duration of the reset signal meets or exceeds a selected duration, characterised in that the monitor circuit is configured to indicate whether the duration of the reset signal meets or exceeds a selected duration with a reset effective signal that permits the non-reset operating condition. a reset input to receive a reset signal activated for a duration, wherein the reset signal generates a reset condition in the integrated circuit during which the non-reset operating condition is blocked; and a monitor circuit operably coupled to the reset input to indicate if the duration of the reset signal meets or exceeds a selected duration, characterised in that the monitor circuit is configured to indicate whether the duration of the reset signal meets or exceeds a selected duration with a reset effective signal that permits the non-reset operating condition.
Signal-processing device , preferably for a vehicle , for signal processing for a rotation-measuring device , which rotation-measuring device has a rotation-measuring sensor and a rotary measuring body , wherein the rotary measuring body has a feature quantity (AM) of measurement features , wherein - for signal processing, the signal-processing device is configured to provide temporally successive message sequences , and - a message sequence has a message quantity (A) of successive messages such that - temporally successive messages are assigned in temporal succession to spatially adjacent measurement features , wherein the measurement features interact with the rotation-measuring sensor , and each message is provided in a message type (NT, C, T, P) selected from a predetermined quantity of message types, and - a message arranged at a fixed sequence position (PSF) of the message sequence is a message of a predetermined type which describes a feature property of the assigned measurement feature , characterized in that - the signal-processing device is configured to generate the message sequences such that the message quantity (A) and the feature quantity (AM) are relatively prime. - for signal processing, the signal-processing device is configured to provide temporally successive message sequences , and - a message sequence has a message quantity (A) of successive messages such that - temporally successive messages are assigned in temporal succession to spatially adjacent measurement features , wherein the measurement features interact with the rotation-measuring sensor , and each message is provided in a message type (NT, C, T, P) selected from a predetermined quantity of message types, and - a message arranged at a fixed sequence position (PSF) of the message sequence is a message of a predetermined type which describes a feature property of the assigned measurement feature , - the signal-processing device is configured to generate the message sequences such that the message quantity (A) and the feature quantity (AM) are relatively prime.
A cross-linkable rubber composition, the cross-linkable rubber composition comprising: at least one rubber, at least one filler, at least one olivine group mineral, characterized in that the filler is selected from silica, carbon black or a combination thereof, in that the olivine group mineral is present in an amount of ≥ 5 phr to ≤ 60 phr, and in that the ratio in parts by weight per 100 parts by weight of rubber (phr) of the olivine group mineral to the filler is in the range of 1:1 to 1:10. at least one rubber, at least one filler, at least one olivine group mineral, characterized in that the filler is selected from silica, carbon black or a combination thereof, in that the olivine group mineral is present in an amount of ≥ 5 phr to ≤ 60 phr, and in that the ratio in parts by weight per 100 parts by weight of rubber (phr) of the olivine group mineral to the filler is in the range of 1:1 to 1:10.
Apparatus for machining a workpiece with a high-intensity laser beam , the apparatus being configured to provide a pressurized fluid jet and to couple the laser beam into the fluid jet , characterized in that the apparatus comprises a detection unit configured to receive and detect secondary radiation generated by the laser beam in the fluid jet , the detection unit including a sensing unit configured to convert secondary radiation into a detection signal , wherein the apparatus is configured to generate, with the detection unit , a plurality of detection signals at a single position or at different positions along the fluid jet , wherein the apparatus further comprises a processing unit configured to determine, based on the plurality of detection signals received from the sensing unit , at least one flow characteristic of the fluid jet . characterized in that the apparatus comprises a detection unit configured to receive and detect secondary radiation generated by the laser beam in the fluid jet , the detection unit including a sensing unit configured to convert secondary radiation into a detection signal , wherein the apparatus is configured to generate, with the detection unit , a plurality of detection signals at a single position or at different positions along the fluid jet , wherein the apparatus further comprises a processing unit configured to determine, based on the plurality of detection signals received from the sensing unit , at least one flow characteristic of the fluid jet .
Transport vehicle for containers , having a first set-down surface on which a container can be set down, and having two mutually opposing guide surfaces which extend towards one another in the direction of the first set-down surface in order to guide a container during set-down on the transport vehicle in the direction of the first set-down surface , wherein the first set-down surface is disposed between the guide surfaces , characterised in that an adapter is provided which can be moved between a standby position and an operating position in such a way that a container is guided onto the first set-down surface during set-down on the transport vehicle when the adapter is in the standby position, and is guided onto a second set-down surface , which is formed by the adapter and disposed between the guide surfaces , when the adapter is placed onto the transport vehicle in the operating position and the adapter is placed, in the operating position, on a support surface of the transport vehicle which is cleared in the standby position.
A method for operating a combined cycle power plant (CCPP) comprised of a gas turbine , a heat recovery steam generator located downstream of the gas turbine , at least one steam turbine , comprising a low pressure steam turbine section, an intermediate pressure steam turbine section and a high pressure steam turbine section, and a separate supercritical steam turbine comprising the step of: initiating a base load operation of the CCPP at a supercritical pressure, via supercritical steam from the steam turbine ; expanding the supercritical steam and generating exiting steam at a subcritical pressure by the supercritical steam turbine ; introducing the exiting steam at the subcritical pressure into the high pressure steam turbine section of the main steam turbine ; and operating the CCPP in a part load operation at a subcritical pressure level. initiating a base load operation of the CCPP at a supercritical pressure, via supercritical steam from the steam turbine ; expanding the supercritical steam and generating exiting steam at a subcritical pressure by the supercritical steam turbine ; introducing the exiting steam at the subcritical pressure into the high pressure steam turbine section of the main steam turbine ; and operating the CCPP in a part load operation at a subcritical pressure level.
A cannula seal , comprising: a base portion sized and shaped to engage with a cannula ; and a seal portion integral with the base portion ; the seal portion comprising portions defining a proximal seal opening, a distal seal opening, and an internal cavity between the proximal seal opening and the distal seal opening; the proximal seal opening and distal seal opening defining a seal axis extending through the cavity between the proximal seal opening and the distal seal opening; the seal portion further comprising a radially compliant and symmetrical circumferentially grooved seal surface that is sized and shaped to slidably seal against an outer surface of an instrument shaft ; and characterized in that the grooved seal surface comprises a plurality of grooves and portions defining a gap that intersects the plurality of grooves. a base portion sized and shaped to engage with a cannula ; and a seal portion integral with the base portion ; the seal portion comprising portions defining a proximal seal opening, a distal seal opening, and an internal cavity between the proximal seal opening and the distal seal opening; the proximal seal opening and distal seal opening defining a seal axis extending through the cavity between the proximal seal opening and the distal seal opening; the seal portion further comprising a radially compliant and symmetrical circumferentially grooved seal surface that is sized and shaped to slidably seal against an outer surface of an instrument shaft ; and characterized in that the grooved seal surface comprises a plurality of grooves and portions defining a gap that intersects the plurality of grooves.
A method for controlling an illumination level of a luminous element of a user interface for an electrical device , comprising: storing, by a processor , information defining a signal corresponding to a desired time-varying illumination level of the luminous element to be perceived by a human observer, wherein the corresponding signal comprises an increasing ramp function and a decreasing ramp function; calculating, by the processor, a time-varying control signal based on the corresponding signal and a nonlinear sensitivity relationship between an actual illumination level and a resulting illumination level perceived by a human eye; and causing, by the processor, the luminous element to be illuminated in accordance with the calculated time-varying control signal, characterized in that the increasing ramp function and the decreasing ramp function comprised in the corresponding signal are an increasing sinusoidal based ramp function and a decreasing sinusoidal-based ramp function, respectively; and the calculated time-varying control signal is calculated by converting the corresponding signal using a compensating function, wherein the compensating function is based on the nonlinear sensitivity relationship between the actual illumination level and the resulting illumination level perceived by the human eye and comprises: Y = L ∗ 903.3 if L ∗ ≤ 8 Y = L ∗ + 16 116 3 if L ∗ > 8 wherein Y is the calculated time-varying control signal; and L* is the corresponding signal. storing, by a processor , information defining a signal corresponding to a desired time-varying illumination level of the luminous element to be perceived by a human observer, wherein the corresponding signal comprises an increasing ramp function and a decreasing ramp function; calculating, by the processor, a time-varying control signal based on the corresponding signal and a nonlinear sensitivity relationship between an actual illumination level and a resulting illumination level perceived by a human eye; and causing, by the processor, the luminous element to be illuminated in accordance with the calculated time-varying control signal, characterized in that the increasing ramp function and the decreasing ramp function comprised in the corresponding signal are an increasing sinusoidal based ramp function and a decreasing sinusoidal-based ramp function, respectively; and the calculated time-varying control signal is calculated by converting the corresponding signal using a compensating function, wherein the compensating function is based on the nonlinear sensitivity relationship between the actual illumination level and the resulting illumination level perceived by the human eye and comprises: Y = L ∗ 903.3 if L ∗ ≤ 8 Y = L ∗ + 16 116 3 if L ∗ > 8 wherein Y is the calculated time-varying control signal; and L* is the corresponding signal. Y is the calculated time-varying control signal; and L* is the corresponding signal.
A putter head comprising: (a) a putter body including a ball striking face member made of a material having a first hardness characteristic, wherein a cavity is defined in the putter body behind the ball striking face member, and wherein a plurality of independent and separated openings are defined in the ball striking face member, the independent and separated openings extending rearward with respect to the ball striking face member so as to open into the cavity; and (b) a polymeric material provided to at least partially fill the plurality of openings and the cavity, wherein the polymeric material has a second hardness characteristic that is softer than the first hardness characteristic, and wherein the ball striking face member and the polymeric material exposed in at least some of the openings provide a ball striking surface of the putter head; wherein the openings are formed as one or more elongated slots, said slots extending rearward from the ball striking surface at a non-perpendicular angle with respect to the ball striking surface. (a) a putter body including a ball striking face member made of a material having a first hardness characteristic, wherein a cavity is defined in the putter body behind the ball striking face member, and wherein a plurality of independent and separated openings are defined in the ball striking face member, the independent and separated openings extending rearward with respect to the ball striking face member so as to open into the cavity; and (b) a polymeric material provided to at least partially fill the plurality of openings and the cavity, wherein the polymeric material has a second hardness characteristic that is softer than the first hardness characteristic, and wherein the ball striking face member and the polymeric material exposed in at least some of the openings provide a ball striking surface of the putter head;