mhurhangee/patent-ind-claim-en huggingface dataset:
A filter unit, comprising two stacked cavities, wherein each cavity comprises: a dielectric substrate , a first metal covering layer and a second metal covering layer that are disposed on two opposite surfaces of the dielectric substrate , a row of first plated through-holes , a row of second plated through-holes , and a row of third plated through-holes that are provided on the dielectric substrate , and a coupling slot provided on the first metal covering layer , wherein the first metal covering layer is in a shape of a right triangle; wherein the row of first plated through-holes is parallel to a hypotenuse of the first metal covering layer , and the first plated through-holes run through the first metal covering layer and the second metal covering layer ; the filter unit further comprising metal sheets disposed on the second metal covering layer , wherein the row of second plated through-holes is located outside the first metal covering layer such as not to run through the first metal covering layer , the row of second plated through-holes is parallel to a cathetus of the first metal covering layer , the row of second plated through-holes runs through the second metal covering layer , each of the row of second plated through-holes is connected to one of said metal sheets , there is a gap between neighboring metal sheets , and wherein the row of second plated through-holes and the metal sheets form a magnetic wall structure; the row of third plated through-holes is located outside the first metal covering layer such as not to run through the first metal covering layer , and the row of third plated through-holes is parallel to the other cathetus of the first metal covering layer , the row of third plated through-holes runs through the second metal covering layer , and the row of third plated through-holes forms an electric wall structure; the coupling slot is parallel to the row of first plated through-holes , and one end of the coupling slot facing the magnetic wall structure runs through the first metal covering layer , and one end of the coupling slot facing the electric wall structure is a closed end; and coupling slots between the two cavities are provided face to face, and the two cavities are coupled by using two coupling slots .
A beamforming method of an active electronically steerable receive antenna , which receive antenna comprises an antenna array containing several receive antenna elements (104-108), the method comprising: - receiving reflected radar signals at the receive antenna elements, and obtaining received signals from the receive antenna elements; - receive processing the received signals, the receive processing comprising frequency down-conversion, and analog-to-digital conversion, thereby generating several digital signals; - aligning the received signals or the digital signals for a predetermined angle of incidence; characterized in - determining a beamformed signal, comprising multiplying several signals including a sum beamforming signal, which is determined by summing at least two of the digital signals, and a product beamforming signal, which is determined by multiplying at least two of the digital signals, wherein the product beamforming signal is a grating lobe suppression signal, which suppresses grating lobes of the sum beamforming signal when multiplied with the sum beamforming signal, wherein the aligning is performed before the determining of the beamformed signal. - receiving reflected radar signals at the receive antenna elements, and obtaining received signals from the receive antenna elements; - receive processing the received signals, the receive processing comprising frequency down-conversion, and analog-to-digital conversion, thereby generating several digital signals; - aligning the received signals or the digital signals for a predetermined angle of incidence; characterized in - aligning the received signals or the digital signals for a predetermined angle of incidence; characterized in - determining a beamformed signal, comprising multiplying several signals including a sum beamforming signal, which is determined by summing at least two of the digital signals, and a product beamforming signal, which is determined by multiplying at least two of the digital signals, wherein the product beamforming signal is a grating lobe suppression signal, which suppresses grating lobes of the sum beamforming signal when multiplied with the sum beamforming signal,
An optical system , comprising: a first substrate , wherein the first substrate comprises at least one bridge structure , and wherein one or more light-emitter devices are disposed on the at least one bridge structure; a second substrate , wherein the second substrate has a mounting surface ; and at least one spacer coupled to the mounting surface, characterized in that a first portion of the first substrate is coupled to the at least one spacer on the mounting surface of the second substrate and wherein the first substrate faces the mounting surface of the second substrate at an angle, and wherein the at least one spacer is in physical contact with the one or more light-emitter devices. a first substrate , wherein the first substrate comprises at least one bridge structure , and wherein one or more light-emitter devices are disposed on the at least one bridge structure; a second substrate , wherein the second substrate has a mounting surface ; and at least one spacer coupled to the mounting surface, characterized in that a first portion of the first substrate is coupled to the at least one spacer on the mounting surface of the second substrate and wherein the first substrate faces the mounting surface of the second substrate at an angle, and wherein the at least one spacer is in physical contact with the one or more light-emitter devices.
An isolated antibody or antigen-binding fragment thereof that specifically binds Activin A with a binding dissociation equilibrium constant (KD) of less than 5 pM, optionally with a KD of less than 4 pM, as measured in a surface plasmon resonance assay at 25°C, wherein the antibody or antigen-binding fragment comprises: HCDR1-HCDR2-HCDR3-LCDR1-LCDR2-LCDR3 domains, having the amino acid sequences of SEQ ID NOs: 164-166-168-148-150-152, respectively.
A system comprising: a microphone ; a first speaker configured for receiving a first input signal and generating a first vibration force; characterized in that the system further comprises: a signal transformation unit configured for receiving the first input signal and performing a signal transformation thereon to produce one or more transformed input signals for varying an amount of mechanical vibration at the microphone; and a second speaker configured for receiving one of the one or more transformed input signals and generating a second vibration force; wherein: a combination of the first vibration force and the second vibration force varies the amount of mechanical vibration at the microphone. a microphone ; a first speaker configured for receiving a first input signal and generating a first vibration force; characterized in that the system further comprises: a signal transformation unit configured for receiving the first input signal and performing a signal transformation thereon to produce one or more transformed input signals for varying an amount of mechanical vibration at the microphone; and a second speaker configured for receiving one of the one or more transformed input signals and generating a second vibration force; wherein: a combination of the first vibration force and the second vibration force varies the amount of mechanical vibration at the microphone. a signal transformation unit configured for receiving the first input signal and performing a signal transformation thereon to produce one or more transformed input signals for varying an amount of mechanical vibration at the microphone; and a second speaker configured for receiving one of the one or more transformed input signals and generating a second vibration force; wherein: a combination of the first vibration force and the second vibration force varies the amount of mechanical vibration at the microphone.
A method for manufacturing a tower structure of a wind turbine , the method comprising: additively printing at least a portion of a frame shape of the tower structure of the wind turbine from a first material on a foundation of the tower structure , the first material having a first cure rate; allowing the portion of the frame shape of the tower structure to at least partially solidify; providing a second material around and/or within the portion of the frame shape such that the portion of the frame shape provides support for the second material , the second material having a second cure rate, the second cure rate slower than the first cure rate; forming one or more voids in the second material ; and allowing the second material to at least partially solidify so as to form the tower structure . additively printing at least a portion of a frame shape of the tower structure of the wind turbine from a first material on a foundation of the tower structure , the first material having a first cure rate; allowing the portion of the frame shape of the tower structure to at least partially solidify; providing a second material around and/or within the portion of the frame shape such that the portion of the frame shape provides support for the second material , the second material having a second cure rate, the second cure rate slower than the first cure rate; forming one or more voids in the second material ; and allowing the second material to at least partially solidify so as to form the tower structure .
An anchored waterproof sealing gasket, comprising a body, wherein one end of the body is provided with an outwardly-protruded anchor foot , and the other end of the body is provided with a notch at the middle portion and provided with wedge heads at two sides thereof, and the middle section of the body is provided with outwardly-protruded side wings at both sides thereof, edges of the notch are protruded towards a middle portion of the notch , characterised by a magnetic strip being placed into the notch so as to allow that the anchored waterproof sealing gasket is fixed on a steel mould through magnetic adsorption of the magnetic strip .
A draw frame installation having two draw frame devices for textile fibre bands, which devices are disposed neighbouring each other and operable in parallel, • respectively including - a drafting system • which is accommodated on a sliver coiling housing , and • to which the textile fibre bands are feedable, and - a base plate , on which two sliver coiling cans are receivable, • wherein - the sliver coiling housing is disposed spaced apart by means of posts and above the base plate , and - the base plate includes a revolving coiler plate , • which is disposed at a front sliver coiling position of the base plate , and • by means of which a sliver coiling can , which is fillable with the textile fibre band, is receivable, and the sliver coiling can is rotatable, characterized in that • the draw frame devices respectively include one revolving coiler plate drive disposed outside the base plate , and • the revolving coiler plate drives are disposed in a spacing between the draw frame devices in an arrangement offset with regard to each other. • respectively including - a drafting system • which is accommodated on a sliver coiling housing , and • to which the textile fibre bands are feedable, and - a base plate , on which two sliver coiling cans are receivable, - a drafting system • which is accommodated on a sliver coiling housing , and • to which the textile fibre bands are feedable, and • which is accommodated on a sliver coiling housing , and • to which the textile fibre bands are feedable, and - a base plate , on which two sliver coiling cans are receivable, • wherein - the sliver coiling housing is disposed spaced apart by means of posts and above the base plate , and - the base plate includes a revolving coiler plate , • which is disposed at a front sliver coiling position of the base plate , and • by means of which a sliver coiling can , which is fillable with the textile fibre band, is receivable, and the sliver coiling can is rotatable, - the sliver coiling housing is disposed spaced apart by means of posts and above the base plate , and - the base plate includes a revolving coiler plate , • which is disposed at a front sliver coiling position of the base plate , and • by means of which a sliver coiling can , which is fillable with the textile fibre band, is receivable, and the sliver coiling can is rotatable, • which is disposed at a front sliver coiling position of the base plate , and • by means of which a sliver coiling can , which is fillable with the textile fibre band, is receivable, and the sliver coiling can is rotatable, • the draw frame devices respectively include one revolving coiler plate drive disposed outside the base plate , and • the revolving coiler plate drives are disposed in a spacing between the draw frame devices in an arrangement offset with regard to each other.
A method for producing a composite material, comprising: providing a layer of carbon nanotubes; filling the interstices of the carbon nanotubes layer with a metal so as to form a metal matrix, in which the carbon nanotubes are embedded, said filling being effected by electrodeposition or by electroless deposition; wherein the layer of carbon nanotubes is obtained by depositing, on a substrate, carbon nanotubes coated with a polyphenol or poly(catecholamine) coating, the polyphenol or poly(catecholamine) coating being crosslinked by metal ions, said metal ions promoting, as metal seeds, adhesion and/or growth of the metal matrix during the filling step. providing a layer of carbon nanotubes; filling the interstices of the carbon nanotubes layer with a metal so as to form a metal matrix, in which the carbon nanotubes are embedded, said filling being effected by electrodeposition or by electroless deposition; wherein the layer of carbon nanotubes is obtained by depositing, on a substrate, carbon nanotubes coated with a polyphenol or poly(catecholamine) coating, the polyphenol or poly(catecholamine) coating being crosslinked by metal ions, said metal ions promoting, as metal seeds, adhesion and/or growth of the metal matrix during the filling step.
A method in a user equipment during a random access procedure, the method comprising: selecting a first downlink transmit antenna port; transmitting a first preamble on one of a first subset of random access channel resources with a first preamble transmit power, wherein the first subset of random access channel resources is associated with the first downlink transmit antenna port; selecting a second downlink transmit antenna port, wherein the second downlink transmit antenna port is different from the first downlink transmit antenna port, when a random access response message including an indication of the first preamble is not received within a random access response reception time window; determining a preamble transmit power adjustment value, based upon one or more downlink transmit antenna port specific parameters received from a wireless communication network; determining a second preamble transmit power based on the determined preamble transmit power adjustment value and the first preamble transmit power; and transmitting a second preamble with the determined second preamble transmit power on one of a second subset of random access channel resources, wherein the second subset of random access channel resources is associated with the second downlink transmit antenna port. selecting a first downlink transmit antenna port; transmitting a first preamble on one of a first subset of random access channel resources with a first preamble transmit power, wherein the first subset of random access channel resources is associated with the first downlink transmit antenna port; selecting a second downlink transmit antenna port, wherein the second downlink transmit antenna port is different from the first downlink transmit antenna port, when a random access response message including an indication of the first preamble is not received within a random access response reception time window; determining a preamble transmit power adjustment value, based upon one or more downlink transmit antenna port specific parameters received from a wireless communication network; determining a second preamble transmit power based on the determined preamble transmit power adjustment value and the first preamble transmit power; and transmitting a second preamble with the determined second preamble transmit power on one of a second subset of random access channel resources, wherein the second subset of random access channel resources is associated with the second downlink transmit antenna port.
A shaped article for which the L* value of reflected light is 35 or less and the total light transmittance is 1% or less, wherein, in a wavelength range of 380 nm or more to 780 nm or less, the wavelength at which the maximum value of light transmittance is exhibited is in a range of 380 nm or more to less than 680 nm, and the following Formulae and are satisfied, and the shaped article is obtained by molding a thermoplastic resin composition comprising: a thermoplastic resin; and two or more kinds of light absorbing agents having different wavelength at which the maximum value of light absorbance is exhibited in a wavelength range of 380 nm or more to 880 nm or less, wherein the thermoplastic resin is an acrylic resin, and at least one of the light absorbing agents comprises a light absorbing agent (B) which has a wavelength at which the maximum value of light absorbance is exhibited in a wavelength range of 450 nm or more to less than 700 nm and a total content of the light absorbing agent (B) is 0.1 part by mass or more and 0.5 part by mass or less relative to 100 parts by mass of the thermoplastic resin. Formula : T α ≥ 0.1 % Formula : 0 % ≤ T β ≤ T α / 2 [in the formulae, T α is the maximum value of light transmittance in a wavelength range of 380 nm or more to less than 680 nm, and T β is the maximum value of light transmittance in a wavelength range of 680 nm or more to 780 nm or less]. wherein, in a wavelength range of 380 nm or more to 780 nm or less, the wavelength at which the maximum value of light transmittance is exhibited is in a range of 380 nm or more to less than 680 nm, and the following Formulae and are satisfied, and the shaped article is obtained by molding a thermoplastic resin composition comprising: a thermoplastic resin; and two or more kinds of light absorbing agents having different wavelength at which the maximum value of light absorbance is exhibited in a wavelength range of 380 nm or more to 880 nm or less, a thermoplastic resin; and two or more kinds of light absorbing agents having different wavelength at which the maximum value of light absorbance is exhibited in a wavelength range of 380 nm or more to 880 nm or less, wherein the thermoplastic resin is an acrylic resin, and at least one of the light absorbing agents comprises a light absorbing agent (B) which has a wavelength at which the maximum value of light absorbance is exhibited in a wavelength range of 450 nm or more to less than 700 nm and a total content of the light absorbing agent (B) is 0.1 part by mass or more and 0.5 part by mass or less relative to 100 parts by mass of the thermoplastic resin. Formula : T α ≥ 0.1 % Formula : 0 % ≤ T β ≤ T α / 2 [in the formulae, T α is the maximum value of light transmittance in a wavelength range of 380 nm or more to less than 680 nm, and T β is the maximum value of light transmittance in a wavelength range of 680 nm or more to 780 nm or less].
Lubricant nozzle for a planetary gear set speed reducer of a turbomachine, said nozzle having a generally elongated shape and comprising a body with a longitudinal axis B, said body comprising a longitudinal inner cavity which is in fluid communication with a lubricant inlet located at a longitudinal end of said body and with lubricant outlet apertures which are formed in an annular wall of said body and which extend substantially radially with respect to said longitudinal axis B, said apertures are formed in at least one boss of said body, which projects radially outwards on said wall, characterised in that said at least one boss is at an angular extent (β-Fig. 8) about said longitudinal axis B which is less than 180°.
A surgical handpiece including: a shell , said shell shaped to define a void for receiving a power module and an opening through which the power module is insertable into and removable from the void space; an energy applicator attached to said shell, said energy applicator configured to, when actuated, output energy for application to a tissue to perform a medical/surgical task; a transmission component disposed in said shell for transmitting energy output by the power module to said energy applicator; a lid moveably mountable to the shell to cover the shell opening; and a latch moveably attached to one of the shell or the lid for holding said lid in a latched state; characterized in that , a data tag is mounted to the latch so as to move with said latch, the data tag including data that identifies said handpiece. a shell , said shell shaped to define a void for receiving a power module and an opening through which the power module is insertable into and removable from the void space; an energy applicator attached to said shell, said energy applicator configured to, when actuated, output energy for application to a tissue to perform a medical/surgical task; a transmission component disposed in said shell for transmitting energy output by the power module to said energy applicator; a lid moveably mountable to the shell to cover the shell opening; and a latch moveably attached to one of the shell or the lid for holding said lid in a latched state; characterized in that , a data tag is mounted to the latch so as to move with said latch, the data tag including data that identifies said handpiece.
Method for assigning ports (L1, L2, L3) of a cell of a radio access network to user equipments (UE1, UE2) being attached to the cell, wherein one or more ports (L1, L2, L3) to be assigned to a user equipment (UE1, UE2) are selected (S440) based on a traffic situation in said cell characterized in that user equipments (UE1, UE2) of a first type capable of performing measurements to be used for port selection and of a second type not capable of performing such measurements are present in the cell, and wherein the traffic situation is determined (S430) based on measurements, said measurements being performed by a node (BS1, 51) of the radio access network or by one or more user equipments (UE1, UE2) of the first type and reported to the radio access network by the one or more user equipments (UE1, UE2), and wherein the method comprising determining evaluation rules (S410), particularly one or more threshold values, for said measurements, and selecting one or more ports (L1, L2, L3) to be assigned to the user equipment (UE1, UE2) depending on whether said evaluation rules are met, particularly on whether said one or more thresholds are exceeded or underrun.