mhurhangee/ep-ind-claims huggingface dataset:
Air spring bellows fastened at its two ends between a sprung mass and an unsprung mass via attachment parts, wherein, for fastening to the attachment parts, the bellows has, at least at one bellows end, an encircling bead-like thickened portion with an annular core (5, 9), wherein the annular core (5, 9) is substantially embedded in the bellows material and has devices which interact with the respective attachment parts and by way of which the annular core (5, 9), together with the bellows end, is fastenable to the attachment part, characterized in that that the annular core has pegs or pins arranged distributed over its circumference, arranged substantially parallel to the bellows axis, oriented in the direction of the attachment parts and protruding from the material of the bellows that are latchable into bores or complementary receptacles of the attachment parts.
A thermoplastic preform configured to obtain by means of a blowing process a wide-mouth container suitable for use in a beverage dispenser, wherein the preform defines an axis X and comprises a neck and a body coaxial to axis X, wherein the neck has an inner cylindrical surface adapted to remain unchanged in said blowing process and having a total length Ltot along axis X, while the body is adapted to be blown in said blowing process to take the shape of the wide-mouth container, said neck comprising a neck finish provided with the opening for pouring the beverage, and having a first axial length L1, which is part of said total length Ltot, a support ring, a cylindrical portion having a second axial length L2, which is part of said total length Ltot, wherein the support ring is arranged between the neck finish and the cylindrical portion, wherein the cylindrical portion is arranged between the body and the support ring, and wherein said second axial length L2 is at least equal to said first axial length L1, characterised in that said wide-mouth container has a volume comprised between 5 liters and 30 liters and a wide mouth with an outer diameter comprised between 53 and 58 millimeters. wherein the preform defines an axis X and comprises a neck and a body coaxial to axis X, wherein the neck has an inner cylindrical surface adapted to remain unchanged in said blowing process and having a total length Ltot along axis X, while the body is adapted to be blown in said blowing process to take the shape of the wide-mouth container, said neck comprising a neck finish provided with the opening for pouring the beverage, and having a first axial length L1, which is part of said total length Ltot, a support ring, a cylindrical portion having a second axial length L2, which is part of said total length Ltot, a neck finish provided with the opening for pouring the beverage, and having a first axial length L1, which is part of said total length Ltot, a support ring, a cylindrical portion having a second axial length L2, which is part of said total length Ltot, wherein the support ring is arranged between the neck finish and the cylindrical portion, wherein the cylindrical portion is arranged between the body and the support ring, and wherein said second axial length L2 is at least equal to said first axial length L1, characterised in that said wide-mouth container has a volume comprised between 5 liters and 30 liters and a wide mouth with an outer diameter comprised between 53 and 58 millimeters.
A weft braking device for an accumulator yarn feeder that is provided with a drum on which a reserve of yarn is wound which is adapted to be unwound on demand by a downstream textile machine, which comprises: - an axially symmetrical concave body (16; 116) adapted to be pushed with its internal surface against the delivery edge of the drum, - a wear-resistant lamina (20; 120), which has a concave annular profile delimited between an internal annular edge and an external annular edge and covers an internal annular surface of said concave body (16; 116) in the region in which it abuts against the drum, wherein said concave body is provided with a series of slits (22; 122) which are arranged along a circumference thereof, characterized in that said wear-resistant lamina (20; 120) has a series of fins (24; 124) which project from the external annular edge thereof and are aligned with said slits (22; 122) in order to be inserted into them, said wear-resistant lamina (20; 120) being made of a flexible material having a thickness such that it can be initially applied to said concave body (16; 116) with an opposite concavity with respect thereto by inserting said fins (24; 124) into said slits (22; 122), and then turned inside out so as to have a concavity that matches the concave body (16; 116). - an axially symmetrical concave body (16; 116) adapted to be pushed with its internal surface against the delivery edge of the drum, - a wear-resistant lamina (20; 120), which has a concave annular profile delimited between an internal annular edge and an external annular edge and covers an internal annular surface of said concave body (16; 116) in the region in which it abuts against the drum,
An energy guide chain for guiding cables, hoses, or the like, comprising - two link strands each comprising a plurality of links (2, 3); - separately detachable transverse webs (4a, 4b) which connect the two link strands with each other and parallel to each other; - in each link strand a plurality of joint elements, wherein each joint element is elastically deformable; wherein in each link strand the links (2, 3) are connected to each other in a longitudinal direction of the energy guide chain and can be angled to one another by means of articulated connection; and wherein, for the articulated connection, each joint element connects adjacent links (2, 3) to each other in an articulated manner, so that the respective connected links can be angled to one another in an angling direction, and wherein each joint element is implemented as a separate component in each case; characterized in that each joint element comprises at least one first snap means which cooperates with corresponding second snap means (36A, 36B) of the first link of two neighboring links (2, 3), wherein first and second snap means build a snap connection (56, 36A, 36B) which secures the joint element at the first link of the two neighboring links (2, 3) in a transverse direction transverse to the longitudinal direction. - two link strands each comprising a plurality of links (2, 3); - separately detachable transverse webs (4a, 4b) which connect the two link strands with each other and parallel to each other; - in each link strand a plurality of joint elements, wherein each joint element is elastically deformable; wherein in each link strand the links (2, 3) are connected to each other in a longitudinal direction of the energy guide chain and can be angled to one another by means of articulated connection; and
A method for olefin polymerization, comprising: polymerizing one or more olefins within a reactor having one or more injection tubes in fluid communication therewith, at least one of the one or more injection tubes having two or more concentric flow paths; flowing a catalyst through a first concentric flow path of the injection tube into the reactor; flowing one or more monomers through a second concentric flow path of the injection tube into the reactor; measuring the rate of heat removal within the reactor; and adjusting the flow of the one or more monomers through the injection tube in response to the rate of heat removal in the reactor, wherein adjusting the flow of the one or more monomers comprises increasing the flow of the one or more monomers when the rate of heat removal decreases by at least 5% over a 5 to 10 minute interval. polymerizing one or more olefins within a reactor having one or more injection tubes in fluid communication therewith, at least one of the one or more injection tubes having two or more concentric flow paths; flowing a catalyst through a first concentric flow path of the injection tube into the reactor; flowing one or more monomers through a second concentric flow path of the injection tube into the reactor; measuring the rate of heat removal within the reactor; and adjusting the flow of the one or more monomers through the injection tube in response to the rate of heat removal in the reactor, wherein adjusting the flow of the one or more monomers comprises increasing the flow of the one or more monomers when the rate of heat removal decreases by at least 5% over a 5 to 10 minute interval.
A method of wireless communication by a base station, comprising: processing a plurality of synchronization signals by performing time-division multiplexing, TDM, of at least one of a plurality of first synchronization signals of different types and at least one of the plurality of second synchronization signals of different types, the plurality of synchronization signals including the plurality of first synchronization signals and the plurality of second synchronization signals; and transmitting the processed synchronization signals to a user equipment, UE, wherein the plurality of first synchronization signals include at least one of a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a beam reference signal, BRS, an extended synchronization signal, ESS, or a physical broadcast channel, PBCH signal, and wherein at least one of the ESS or a demodulation reference signal, DMRS, of the PBCH signal is used to convey at least a part of a synchronization signal block index. processing a plurality of synchronization signals by performing time-division multiplexing, TDM, of at least one of a plurality of first synchronization signals of different types and at least one of the plurality of second synchronization signals of different types, the plurality of synchronization signals including the plurality of first synchronization signals and the plurality of second synchronization signals; and transmitting the processed synchronization signals to a user equipment, UE,
A method for joining a substrate to silicone rubber, comprising the steps: a) making available the substrate, wherein the substrate has on its surface reactive groups, selected from the group consisting of hydroxy, alkoxy, acetoxy, ether, keto, aldehyde, ester, carboxy and/or halide group, b) making available silicone rubber, preferably in partially cross-linked and particularly preferably in fully cross-linked form, c) irradiating the silicone rubber with UV radiation of at least a wavelength of ≤ 250 nm, preferably ≤ 225 nm, and a radiation dose of 150 mJ/cm 2 - < 2 J/cm 2 in an oxygen-containing atmosphere, so that the silicone rubber has an oxygen content which is increased by ≥ 4 at%, relative to the total number of C, Si and O atoms contained in the surface, measured by means of XPS, d) contacting the substrate surface with the irradiated silicone rubber, with a material-formed bond being produced between the substrate surface and the silicone rubber. a) making available the substrate, wherein the substrate has on its surface reactive groups, selected from the group consisting of hydroxy, alkoxy, acetoxy, ether, keto, aldehyde, ester, carboxy and/or halide group, b) making available silicone rubber, preferably in partially cross-linked and particularly preferably in fully cross-linked form, c) irradiating the silicone rubber with UV radiation of at least a wavelength of ≤ 250 nm, preferably ≤ 225 nm, and a radiation dose of 150 mJ/cm 2 - < 2 J/cm 2 in an oxygen-containing atmosphere, so that the silicone rubber has an oxygen content which is increased by ≥ 4 at%, relative to the total number of C, Si and O atoms contained in the surface, measured by means of XPS, d) contacting the substrate surface with the irradiated silicone rubber, with a material-formed bond being produced between the substrate surface and the silicone rubber.
A blow molded article characterised in that the article comprises at least three layers wherein • layer A comprises polymer, • layer B comprises a foam composition comprising high density polyethylene having a quotient of melt strength and apparent viscosity > 2 cN/k.Pa.s. • layer C comprises polymer wherein the layer comprising the foam composition is enclosed between two layers A and C and wherein the melt strength is determined as described in ISO 16790:2005 under the conditions described in the description and the apparent viscosity is determined as described in ISO 11443:2014 under the conditions described in the description and wherein the foam composition is produced with a physically blowing agent and without a chemical blowing agent, wherein the melt strength of the high density polyethylene ≥ 10 cN. • layer A comprises polymer, • layer B comprises a foam composition comprising high density polyethylene having a quotient of melt strength and apparent viscosity > 2 cN/k.Pa.s. • layer C comprises polymer
A method comprising: determining, by a first user equipment, from signaling received from a network access node on a decoded downlink control channel (202, 206) that a second user equipment is operating in a second transmission mode and is allocated a same radio resource as the first user equipment operating in a first transmission mode, wherein the transmission mode of the second user equipment is implicitly or explicitly indicated by or in a downlink control indication format; determining, by the first user equipment from signaling received from the network access node, a transport format for transmissions to the second user equipment (206, 304, 312); using the determined transport format to decode a transmission received on the radio resource at the first user equipment which is directed to the second user equipment (208, 306); and canceling the decoded transmission to mitigate interference with a further transmission directed to the first user equipment (210, 305). determining, by a first user equipment, from signaling received from a network access node on a decoded downlink control channel (202, 206) that a second user equipment is operating in a second transmission mode and is allocated a same radio resource as the first user equipment operating in a first transmission mode, wherein the transmission mode of the second user equipment is implicitly or explicitly indicated by or in a downlink control indication format; determining, by the first user equipment from signaling received from the network access node, a transport format for transmissions to the second user equipment (206, 304, 312); using the determined transport format to decode a transmission received on the radio resource at the first user equipment which is directed to the second user equipment (208, 306); and canceling the decoded transmission to mitigate interference with a further transmission directed to the first user equipment (210, 305).
A method of transmitting device-generated synchronization signals from a wireless device configured for operation in an LTE wireless communication network, said method comprising: generating the device-generated synchronization signals using at least a subset of the same sequences used by base stations in the network for generating network synchronization signals; and transmitting the device-generated synchronization signals according to a relative positioning or mapping that characteristically differs from a relative positioning or mapping used for transmitting the network synchronization signals originating from any of the base stations in the wireless communication network, the method characterized by further comprising including or omitting one or more control fields in a Device-to-Device, D2D, broadcast control channel transmitted by the wireless device in association with transmission of the device-generated synchronization signals, wherein the control field omissions or inclusions characteristically distinguish the D2D broadcast control channel from network broadcast control channel transmissions by any of the base stations in association with their respective transmissions of the network synchronization signals. generating the device-generated synchronization signals using at least a subset of the same sequences used by base stations in the network for generating network synchronization signals; and transmitting the device-generated synchronization signals according to a relative positioning or mapping that characteristically differs from a relative positioning or mapping used for transmitting the network synchronization signals originating from any of the base stations in the wireless communication network, the method characterized by further comprising including or omitting one or more control fields in a Device-to-Device, D2D, broadcast control channel transmitted by the wireless device in association with transmission of the device-generated synchronization signals, wherein the control field omissions or inclusions characteristically distinguish the D2D broadcast control channel from network broadcast control channel transmissions by any of the base stations in association with their respective transmissions of the network synchronization signals.
A fixed angle wing lift type horizontal shaft wind power generating device with a start assisting function, comprising: a permanent magnet type generator for generating in connection with the rotation shaft of a rotation wing which is rotated in the forward direction by wind; a start assistance unit for switching the generator to a motor and performing a start assisting rotation which rotates the rotation shaft in the forward direction; and a generation restoring unit for restoring the motor to the generator when the start assisting rotation by the start assisting unit is suspended; characterized in that the start assistance unit is adapted to detect a rotation direction of the rotation shaft by applying a voltage to the permanent magnet type generator for one cycle and, when the detected rotation direction is a reverse direction, to invert the rotation direction thereby ensuring that the rotation shaft rotates in the forward direction. a permanent magnet type generator for generating in connection with the rotation shaft of a rotation wing which is rotated in the forward direction by wind; a start assistance unit for switching the generator to a motor and performing a start assisting rotation which rotates the rotation shaft in the forward direction; and a generation restoring unit for restoring the motor to the generator when the start assisting rotation by the start assisting unit is suspended; characterized in that the start assistance unit is adapted to detect a rotation direction of the rotation shaft by applying a voltage to the permanent magnet type generator for one cycle and, when the detected rotation direction is a reverse direction, to invert the rotation direction thereby ensuring that the rotation shaft rotates in the forward direction.
A method comprising: in a data storage device that includes a memory, a controller, and a communication bus coupled to the memory and to the controller, performing: sending a read-write command from the controller to the memory via the communication bus, wherein the read-write command includes a command identifier data transfer unit that identifies the read-write command, wherein the read-write command indicates a first address of read data to be read from the memory and also indicates a second address corresponding to a write location in the memory, and wherein write data is also sent from the controller to the memory via the communication bus; sensing the read data from the memory while receiving write data from the controller; and receiving, at the controller, the read data from the memory, wherein initiating transfer of the read data over the communication bus overlaps the write data being stored at the write location in the memory. in a data storage device that includes a memory, a controller, and a communication bus coupled to the memory and to the controller, performing: sending a read-write command from the controller to the memory via the communication bus, wherein the read-write command includes a command identifier data transfer unit that identifies the read-write command, wherein the read-write command indicates a first address of read data to be read from the memory and also indicates a second address corresponding to a write location in the memory, and wherein write data is also sent from the controller to the memory via the communication bus; sensing the read data from the memory while receiving write data from the controller; and receiving, at the controller, the read data from the memory, wherein initiating transfer of the read data over the communication bus overlaps the write data being stored at the write location in the memory. sending a read-write command from the controller to the memory via the communication bus, wherein the read-write command includes a command identifier data transfer unit that identifies the read-write command, wherein the read-write command indicates a first address of read data to be read from the memory and also indicates a second address corresponding to a write location in the memory, and wherein write data is also sent from the controller to the memory via the communication bus; sensing the read data from the memory while receiving write data from the controller; and receiving, at the controller, the read data from the memory, wherein initiating transfer of the read data over the communication bus overlaps the write data being stored at the write location in the memory.
A fusion protein, a biologically active fragment of the fusion protein or an analog of the fusion protein, wherein said fusion protein comprises (i) an Fc portion of an antibody and (ii) a soluble IGF-IR protein, wherein: - the fusion protein comprises the sequence set forth in SEQ ID NO: 16, or SEQ ID NO: 12, and - the biologically active fragment or analog has at least 70% sequence identity to the fusion protein, retains the binding specificity of the fusion protein for IGF-1 and IGF-2; wherein the cysteine residues of the hinge region of the Fc portion of the fusion protein, the biologically active fragment and the analog are replaced with serine residues. - the fusion protein comprises the sequence set forth in SEQ ID NO: 16, or SEQ ID NO: 12, and - the biologically active fragment or analog has at least 70% sequence identity to the fusion protein, retains the binding specificity of the fusion protein for IGF-1 and IGF-2;
A method of manufacturing an optical element, the element intended to be reflective or transmissive at a single target wavelength in the range from 0.1 to 250 nanometer, characterized by defining a two dimensional or three dimensional nanoscale building block having a shape or dimensions configured to interact with the electromagnetic radiation at the single target wavelength; assembling a set of the nanoscale building blocks (210, 510, 609) on a substrate or as a membrane and into a configuration or scaffold structure having a predefined arrangement; depositing, using atomic layer deposition (550, 611), a material conformal to the assembled configuration or scaffold,the material selected to be a metal, Carbon, Molybdenum, Beryllium, Lanthanum, Boron Carbide, Silicon, SiO2, TiO2, Ruthenium, Niobium, Rhodium, Rubidium, Gold, Silver, Copper, Platinum, Palladium, Germanium, Technetium, Strontium, Zirconium, Molybdenum Oxide, Silicon, Tantalum, Titanium or their compounds, or organic material. defining a two dimensional or three dimensional nanoscale building block having a shape or dimensions configured to interact with the electromagnetic radiation at the single target wavelength; assembling a set of the nanoscale building blocks (210, 510, 609) on a substrate or as a membrane and into a configuration or scaffold structure having a predefined arrangement; depositing, using atomic layer deposition (550, 611), a material conformal to the assembled configuration or scaffold,the material selected to be a metal, Carbon, Molybdenum, Beryllium, Lanthanum, Boron Carbide, Silicon, SiO2, TiO2, Ruthenium, Niobium, Rhodium, Rubidium, Gold, Silver, Copper, Platinum, Palladium, Germanium, Technetium, Strontium, Zirconium, Molybdenum Oxide, Silicon, Tantalum, Titanium or their compounds, or organic material.