mhurhangee/patent-ind-claim-en huggingface dataset:
A conjugated polymer that comprises in its backbone one or more electron donor units D i and one or more electron acceptor units A i , and optionally one or two terminal or endcap units T, wherein each donor unit D i in the polymer backbone is flanked by two acceptor units A i to form a triad A i -D i -A i , except for D i units adjacent to a terminal or endcap group T, excluding polymers comprising repeating units [A-D-A] wherein A is optionally substituted pyrazolone and D is optionally substituted benzo[1,2-b:4,5-b']dithiophene, characterized in that it fulfils the condition f≤s/2+2, wherein f is the total number of units D i in the polymer backbone, s is the total number of units A i in the polymer backbone and is at least 2, and characterized in that the donor units D i are selected from the formula la1 wherein R 1-4 independently of each other denote H, halogen, straight-chain, branched or cyclic alkyl with 1 to 30 C atoms, in which one or more non-adjacent CH 2 groups are optionally replaced by -O-, -S-, -C(O)-, -C(O)-O-, -O-C(O)-, -O-C(O)-O-, -SO 2 -, -SO 3 -, -NR 0 -, -SiR 0 R 00- , -CF 2 -, -CHR 0 =CR 00 -, - CY 1 =CY 2 - or -C=C- in such a manner that O and/or S atoms are not linked directly to one another, and in which one or more H atoms are optionally replaced by F, Cl, Br, I or CN, or R 1-4 denote aryl or heteroaryl that is optionally substituted and has 4 to 30 ring atoms, wherein R 0 and R 00 denote H or alkyl with 1 to 12 C-atoms, and Y 1 and Y 2 denote H, F or CN, and characterized in that the acceptor units A i are selected from the following formulae or their mirror images: wherein R 11 , R 12 , R 13 ,R 14 , R 15 and R 16 independently of each have one of the meanings of R 1 , and characterized in that it comprises in its backbone one or more spacer units Sp i linking the triads A i -D i -A i , and characterized in that it comprises one or more spacer units Sp i that are different from the donor and acceptor units D i and A i , and are selected from divalent, mono- or polycyclic, and optionally substituted, arylene or heteroarylene, -CY 1 =CY- or -C≡C-, wherein Y 1 and Y independently of each other denote H, F, Cl or CN, wherein said spacer units Sp i are selected from the following formulae: wherein R, R', R" and R'" have one of the meanings of R 1 . characterized in that it comprises in its backbone one or more spacer units Sp i linking the triads A i -D i -A i , and characterized in that it comprises one or more spacer units Sp i that are different from the donor and acceptor units D i and A i , and are selected from divalent, mono- or polycyclic, and optionally substituted, arylene or heteroarylene, -CY 1 =CY- or -C≡C-, wherein Y 1 and Y independently of each other denote H, F, Cl or CN, wherein said spacer units Sp i are selected from the following formulae: wherein R, R', R" and R'" have one of the meanings of R 1 .
Pultrusion process for the impregnation of continuous-filament fibers, of continuous-filament-fiber bundles, rovings, or of semifinished textile products by means of molten thermoplastic or by means of liquid reactive resin , for the production of fiber-reinforced profiles, where i) the continuous-filament fibers, the continuous-filament-fiber bundles, or the semifinished textile products are drawn into and through an enclosed channel of an injection box , ii) in order to saturate the continuous-filament fibers, the continuous-filament-fiber bundles, or the semifinished textile products , the molten thermoplastic or the liquid reactive resin is charged into the channel of the injection box , iii) in order to cool the molten thermoplastic, or in order to harden the reactive resin, with formation of the fiber-reinforced profile, the saturated continuous-filament fibers, continuous-filament-fiber bundles, or semifinished textile products are drawn out from the enclosed channel of the injection box into a chamber of a temperature-controllable die, iv) the fiber-reinforced profile is drawn out from the chamber , characterized in that the internal pressure (p) in the region of the discharge aperture of the channel is adjusted by altering the cross section of the entry aperture of the channel , by varying the set angle (α, α') of at least one of the walls of the channel in relation to the vertical plane of the discharge aperture . i) the continuous-filament fibers, the continuous-filament-fiber bundles, or the semifinished textile products are drawn into and through an enclosed channel of an injection box , ii) in order to saturate the continuous-filament fibers, the continuous-filament-fiber bundles, or the semifinished textile products , the molten thermoplastic or the liquid reactive resin is charged into the channel of the injection box , iii) in order to cool the molten thermoplastic, or in order to harden the reactive resin, with formation of the fiber-reinforced profile, the saturated continuous-filament fibers, continuous-filament-fiber bundles, or semifinished textile products are drawn out from the enclosed channel of the injection box into a chamber of a temperature-controllable die, iv) the fiber-reinforced profile is drawn out from the chamber , characterized in that
A method for wireless communication, implemented at a terminal operating in a narrowband internet-of-things, NB-IoT, system, the method comprising: receiving, from a network device, a first indication to perform a network maintenance strategy to generate measurement records, the first indication including at least one of a type of the terminal or a measurement type; transmitting a second indication of an existence of the measurement records by at least one of Msg3 of an Early Data Transmission, EDT, process or Msg5 of a connection establishment process; receiving, from the network device, a request information related to a maintenance message; and transmitting, to the network device and based on a trigger, the maintenance message comprising the measurement records associated with at least one of a mobility of the terminal, a random access channel performance or a radio link failure; wherein the trigger is based on an occurrence of an event. receiving, from a network device, a first indication to perform a network maintenance strategy to generate measurement records, the first indication including at least one of a type of the terminal or a measurement type; transmitting a second indication of an existence of the measurement records by at least one of Msg3 of an Early Data Transmission, EDT, process or Msg5 of a connection establishment process; receiving, from the network device, a request information related to a maintenance message; and transmitting, to the network device and based on a trigger, the maintenance message comprising the measurement records associated with at least one of a mobility of the terminal, a random access channel performance or a radio link failure; wherein the trigger is based on an occurrence of an event.
A system comprising a cold beverage preparation device and a hot extraction module , the cold beverage preparation device comprising an open cooling reservoir for receiving a liquid beverage, cooling means associated to the cooling reservoir for cooling at least part of an internal surface of the cooling reservoir, a rotational stirring member arranged in the cooling reservoir for mixing or foaming the liquid depending on the speed of rotation of the member, and a rotational scraping member arranged in the cooling reservoir for scraping the internal surface of the cooling reservoir, the rotational stirring member and the scraping member being designed for being driven independently within the cooling reservoir of the device, the hot extraction module comprising a brewing unit for injection of hot liquid into a beverage ingredients containing capsule, a hot beverage outlet connected to the brewing unit for dispensing of a hot extracted beverage; wherein the hot beverage outlet and the open cooling reservoir of the device are arranged moveably relative to each other such that the hot extracted beverage may be selectively dispensed from the hot beverage outlet into the open cooling reservoir in at least one relative position of the hot beverage outlet and the cooling module .
A method for determining the fill level of at least one coin tube that can be filled with coins , comprising the steps of: - capturing at least one spatially resolved image of the upper side of the at least one coin tube using a spatially resolving optical sensor , arranged at a defined distance to the upper side of the at least one coin tube and above the at least one coin tube and directed onto the upper side of the at least one coin tube , - transmitting the at least one spatially resolved image to an evaluation unit , - evaluating the at least one spatially resolved image by the evaluation unit by means of image processing, wherein the diameter of the uppermost coin filled into the coin tube is detected in the spatially resolved image and wherein the fill level of the at least one coin tube is determined from the ratio between the inner or outer diameter of the at least one coin tube on the spatially resolved image and the detected diameter of the uppermost coin filled into the coin tube , wherein the inner diameter of the at least one coin tube is the diameter of the opening of the at least one coin tube , and wherein the outer diameter of the at least one coin tube is the diameter of the outer wall of the at least one coin tube . - capturing at least one spatially resolved image of the upper side of the at least one coin tube using a spatially resolving optical sensor , arranged at a defined distance to the upper side of the at least one coin tube and above the at least one coin tube and directed onto the upper side of the at least one coin tube , - transmitting the at least one spatially resolved image to an evaluation unit , - evaluating the at least one spatially resolved image by the evaluation unit by means of image processing, wherein the diameter of the uppermost coin filled into the coin tube is detected in the spatially resolved image and wherein the fill level of the at least one coin tube is determined from the ratio between the inner or outer diameter of the at least one coin tube on the spatially resolved image and the detected diameter of the uppermost coin filled into the coin tube , wherein the inner diameter of the at least one coin tube is the diameter of the opening of the at least one coin tube , and wherein the outer diameter of the at least one coin tube is the diameter of the outer wall of the at least one coin tube .
A rodent whose endogenous immunoglobulin heavy chain locus is restricted in that it comprises a single human V H gene segment, one or more human D H gene segments, and one or more human J H gene segments and which does not comprise a functional endogenous immunoglobulin heavy chain variable region locus; wherein the single human V H gene segment, one or more human D H gene segments, and one or more J H gene segments are operably linked to a non-human immunoglobulin heavy chain constant region gene, wherein the single human V H gene segment is a polymorphic V H gene segment associated with a high copy number in human populations; wherein the rodent further comprises one or more human immunoglobulin V L gene segments operably linked to one or more human J L gene segments; and wherein the single human V H gene segment is a V H 3 segment family member, or a polymorphic variant thereof. wherein the single human V H gene segment, one or more human D H gene segments, and one or more J H gene segments are operably linked to a non-human immunoglobulin heavy chain constant region gene, wherein the single human V H gene segment is a polymorphic V H gene segment associated with a high copy number in human populations; wherein the rodent further comprises one or more human immunoglobulin V L gene segments operably linked to one or more human J L gene segments; and wherein the single human V H gene segment is a V H 3 segment family member, or a polymorphic variant thereof.
A channel state information-reference signal, CSI-RS, transmission method, comprising: determining , by a network device, that at least two of M quantities of antenna ports respectively used by M radio remote units RRUs for sending a CSI-RS to same user equipment are not equal, wherein M is an integer greater than or equal to 2; and instructing , by the network device, the M RRUs to send P CSI-RSs on N resource elements, wherein at least one of the N resource elements bears content of at least two of the P CSI-RSs, the P CSI-RSs are CSI-RSs respectively sent by P RRUs in the M RRUs, N is a positive integer, and P is an integer less than or equal to M, wherein the instructing, by the network device, the M RRUs to send P CSI-RSs on N resource elements comprises: determining, by the network device, an RRU meeting a preset condition in the M RRUs; determining, by the network device, the N resource elements based on a quantity of antenna ports used for sending a CSI-RS by the RRU meeting the preset condition; and instructing, by the network device, the M RRUs to send the P CSI-RSs on the N resource elements. determining , by a network device, that at least two of M quantities of antenna ports respectively used by M radio remote units RRUs for sending a CSI-RS to same user equipment are not equal, wherein M is an integer greater than or equal to 2; and instructing , by the network device, the M RRUs to send P CSI-RSs on N resource elements, wherein at least one of the N resource elements bears content of at least two of the P CSI-RSs, the P CSI-RSs are CSI-RSs respectively sent by P RRUs in the M RRUs, N is a positive integer, and P is an integer less than or equal to M, wherein the instructing, by the network device, the M RRUs to send P CSI-RSs on N resource elements comprises: determining, by the network device, an RRU meeting a preset condition in the M RRUs; determining, by the network device, the N resource elements based on a quantity of antenna ports used for sending a CSI-RS by the RRU meeting the preset condition; and instructing, by the network device, the M RRUs to send the P CSI-RSs on the N resource elements. determining, by the network device, an RRU meeting a preset condition in the M RRUs; determining, by the network device, the N resource elements based on a quantity of antenna ports used for sending a CSI-RS by the RRU meeting the preset condition; and instructing, by the network device, the M RRUs to send the P CSI-RSs on the N resource elements.
A fan blade for a jet engine, the fan blade comprising: a root connected to a blade portion , the blade portion including a leading edge and a trailing edge ; and a titanium sheath ; at least the blade portion being formed from one of the following: aluminium, an aluminium alloy or an aluminium lithium alloy; characterised in that : the root includes an attachment portion and a root transition portion between the attachment portion and the leading edge of the blade portion ; at least a portion of the leading edge and at least part of the root transition portion being covered by a fabric liner ; and at least a portion of the fabric liner being covered by the titanium sheath . a root connected to a blade portion , the blade portion including a leading edge and a trailing edge ; and a titanium sheath ; at least the blade portion being formed from one of the following: aluminium, an aluminium alloy or an aluminium lithium alloy; characterised in that : the root includes an attachment portion and a root transition portion between the attachment portion and the leading edge of the blade portion ; at least a portion of the leading edge and at least part of the root transition portion being covered by a fabric liner ; and at least a portion of the fabric liner being covered by the titanium sheath . the root includes an attachment portion and a root transition portion between the attachment portion and the leading edge of the blade portion ; at least a portion of the leading edge and at least part of the root transition portion being covered by a fabric liner ; and at least a portion of the fabric liner being covered by the titanium sheath .
A trailing edge assembly of a wind turbine rotor blade , which trailing edge assembly comprises - a mounting portion shaped for mounting to an airfoil region of the rotor blade ; - a flap portion flexibly connected to the mounting portion to allow alteration of a flap angle subtended between the mounting portion and the flap portion ; - a volume adjustable chamber arranged between the mounting portion and the flap portion and realised to alter its volume (V) between a minimum volume (V min ) associated with a minimum flap angle (θ min ) and a maximum volume (V max ) associated with a maximum flap angle (θ max ) ; - at least one tube comprising an outer orifice arranged to face into an airflow (AF 2 ) passing over the airfoil region of the rotor blade , and an inner orifice arranged to face into the interior of the volume adjustable chamber such that an airflow (AF 13 ) between the outer orifice and the inner orifice alters the volume (V) of the volume adjustable chamber . - a mounting portion shaped for mounting to an airfoil region of the rotor blade ; - a flap portion flexibly connected to the mounting portion to allow alteration of a flap angle subtended between the mounting portion and the flap portion ; - a volume adjustable chamber arranged between the mounting portion and the flap portion and realised to alter its volume (V) between a minimum volume (V min ) associated with a minimum flap angle (θ min ) and a maximum volume (V max ) associated with a maximum flap angle (θ max ) ; - at least one tube comprising an outer orifice arranged to face into an airflow (AF 2 ) passing over the airfoil region of the rotor blade , and an inner orifice arranged to face into the interior of the volume adjustable chamber such that an airflow (AF 13 ) between the outer orifice and the inner orifice alters the volume (V) of the volume adjustable chamber .
A composition, comprising a compound of formula (I): wherein R 1 is selected from the group consisting of p-menthyl and 2,3,4-trimethylpent-3-yl group, and wherein X is a radical following formula (II) wherein R1 to R8 have the following meanings wherein said composition is selected from the group consisting of a personal care composition, an oral care composition, a cosmetic product, a pharmaceutical preparation, a confectionary, a food, a beverage, and combinations thereof. wherein R 1 is selected from the group consisting of p-menthyl and 2,3,4-trimethylpent-3-yl group, and wherein X is a radical following formula (II) wherein R1 to R8 have the following meanings wherein said composition is selected from the group consisting of a personal care composition, an oral care composition, a cosmetic product, a pharmaceutical preparation, a confectionary, a food, a beverage, and combinations thereof.
Brush for applying a product (P) to the eyelashes and/or eyebrows, comprising: - a twisted core that extends along a longitudinal axis X, and - bristles that extend from the core along a portion of length L 1 , the ends of the bristles defining an envelope surface S, the envelope surface S having at least one longitudinally extending cutout , the cutout having: ▪ a length L 2 where L 2 ≥ L 1 / 2, ▪ a width w, measured at the bottom of the cutout , that is constant along a length l 2 greater than or equal to 50% of length L 2 , and ▪ a distance d from the longitudinal axis X that varies along its length L 2 the bottom of the cutout having, in longitudinal section, a profile that is concave towards the outside. - a twisted core that extends along a longitudinal axis X, and - bristles that extend from the core along a portion of length L 1 , the ends of the bristles defining an envelope surface S, ▪ a length L 2 where L 2 ≥ L 1 / 2, ▪ a width w, measured at the bottom of the cutout , that is constant along a length l 2 greater than or equal to 50% of length L 2 , and ▪ a distance d from the longitudinal axis X that varies along its length L 2 the bottom of the cutout having, in longitudinal section, a profile that is concave towards the outside.
A computer-implemented method of controlling an imaging platform to compensate for relative motion between the imaging platform and a region of interest, the method comprising: determining, by one or more computing devices , a motion profile for a dual-axis steering mirror associated with an imaging platform ; determining, by the one or more computing devices , position information indicative of an orientation of the imaging platform at one or more points along a path on which the imaging platform travels; and determining, by the one or more computing devices, a plurality of integration time periods based at least in part on the motion profile; capturing, by the one or more computing devices, a sequence of image frames of at least a portion of a region of interest during at least a subset of the plurality of integration time periods as the imaging platform travels along the path; identifying, by the one or more computing devices, blur due to the relative motion between the imaging platform and the region of interest in at least one of the captured image frames; and controlling, by the one or more computing devices, the motion of the steering mirror based at least in part on the motion profile, the position information and the identified blur to compensate for the relative motion, wherein controlling the motion of the steering mirror comprises controlling the steering mirror to rotate about a first axis and a second axis. determining, by one or more computing devices , a motion profile for a dual-axis steering mirror associated with an imaging platform ; determining, by the one or more computing devices , position information indicative of an orientation of the imaging platform at one or more points along a path on which the imaging platform travels; and determining, by the one or more computing devices, a plurality of integration time periods based at least in part on the motion profile; capturing, by the one or more computing devices, a sequence of image frames of at least a portion of a region of interest during at least a subset of the plurality of integration time periods as the imaging platform travels along the path; identifying, by the one or more computing devices, blur due to the relative motion between the imaging platform and the region of interest in at least one of the captured image frames; and controlling, by the one or more computing devices, the motion of the steering mirror based at least in part on the motion profile, the position information and the identified blur to compensate for the relative motion, wherein controlling the motion of the steering mirror comprises controlling the steering mirror to rotate about a first axis and a second axis.