mhurhangee/patent-ind-claim-en huggingface dataset:
Closing device for building openings or rooms, in particular single or double-leaf safety flap or safety door for pressure lock, having a circumferential tubular frame , which forms an enclosed region within a first plane (E1), having a first plate-shaped element , which contacts the tubular frame on a first side and delimits the enclosed region in a direction (R1) orthogonal to the first plane (E1), and having a locking device , which is arranged within the enclosed and delimited region and for the purpose of locking engages through at least one recess provided in the tubular frame , characterised in that a temperature-resistant insulating layer is arranged between the tubular frame and the first plate-shaped element , wherein the tubular frame is formed from a rectangular profile and the first plate-shaped element is fixed via two opposite weld seams on the rectangular profile, and the insulating layer is arranged between the two weld seams . having a circumferential tubular frame , which forms an enclosed region within a first plane (E1), having a first plate-shaped element , which contacts the tubular frame on a first side and delimits the enclosed region in a direction (R1) orthogonal to the first plane (E1), and having a locking device , which is arranged within the enclosed and delimited region and for the purpose of locking engages through at least one recess provided in the tubular frame , characterised in that a temperature-resistant insulating layer is arranged between the tubular frame and the first plate-shaped element , wherein the tubular frame is formed from a rectangular profile and the first plate-shaped element is fixed via two opposite weld seams on the rectangular profile, and the insulating layer is arranged between the two weld seams .
A base station comprising: a transmission section that transmits a downlink signal using a first short transmission time interval, sTTI, shortened in length than a TTI and used for downlink; and a reception section that receives an uplink signal using a second sTTI shortened in length than the TTI and used for uplink, characterized in that when the first sTTI is shorter in length than the second sTTI, the reception section receives the uplink signal in the second sTTI positioned after a predetermined interval from a transmission timing of the downlink signal, the predetermined interval being configured based on the length of the first sTTI, wherein the reception section receives the uplink signal in the very first second sTTI positioned after an interval of a predetermined number of the first sTTls from the transmission timing of the downlink signal. a transmission section that transmits a downlink signal using a first short transmission time interval, sTTI, shortened in length than a TTI and used for downlink; and a reception section that receives an uplink signal using a second sTTI shortened in length than the TTI and used for uplink, characterized in that when the first sTTI is shorter in length than the second sTTI, the reception section receives the uplink signal in the second sTTI positioned after a predetermined interval from a transmission timing of the downlink signal, the predetermined interval being configured based on the length of the first sTTI, wherein the reception section receives the uplink signal in the very first second sTTI positioned after an interval of a predetermined number of the first sTTls from the transmission timing of the downlink signal.
Method for manufacturing carbonated recycled concrete paste and clean aggregate comprising the following steps: - providing a feedstock comprising waste concrete with a D 10 ≥ 0.1 mm and a D 90 ≤ 100 mm - passing the feedstock, a water containing liquid and carbon dioxide in an amount providing a concentration of at least 0.1 wt.-% carbon dioxide in the liquid into a fragmentation vessel, where the wet feedstock is subjected to electric-pulse fragmentation, - withdrawing fragmented solid material from the fragmentation vessel, - separating the fragmented solid material from admixed liquid phase, - separating the fragmented solid material into a fine fraction with a maximum particle size of 250 μm to provide the carbonated recycled concrete paste and a coarse fraction, - recycling the coarse fraction into the fragmentation vessel and/or discharging the coarse fraction as clean aggregate. - providing a feedstock comprising waste concrete with a D 10 ≥ 0.1 mm and a D 90 ≤ 100 mm - passing the feedstock, a water containing liquid and carbon dioxide in an amount providing a concentration of at least 0.1 wt.-% carbon dioxide in the liquid into a fragmentation vessel, where the wet feedstock is subjected to electric-pulse fragmentation, - withdrawing fragmented solid material from the fragmentation vessel, - separating the fragmented solid material from admixed liquid phase, - separating the fragmented solid material into a fine fraction with a maximum particle size of 250 μm to provide the carbonated recycled concrete paste and a coarse fraction, - recycling the coarse fraction into the fragmentation vessel and/or discharging the coarse fraction as clean aggregate.
An apparatus for edge binding a textile work product that has a perimeter comprising first and second edges that meet at a corner at approximately right angles, a binding tape being folded around and attached to the second edge so that an end portion of the binding tape projects beyond the corner in a direction of the second edge, said apparatus comprising a corner finishing device and a conveyor for engagement with the textile work product , and a control device operatively connected to the conveyor and the corner finishing device , said control device being configured to: operate at least one of the conveyor and the corner finishing device to arrange the textile work product with the corner in alignment with the corner finishing device ; and operate the corner finishing device to apply a heat seal to the end portion at the corner and cut the end portion at the heat seal to close the binding tape at the corner, wherein the corner finishing device comprises a heat sealing unit which is operable to form a slot with a height that is smaller than a thickness of the binding tape on the second edge, wherein the control device is configured to, before operating the corner finishing device to apply the heat seal, operate at least one of the conveyor and the corner finishing device to arrange the end portion to extend through the heat sealing unit , operate the heat sealing unit to form the slot with the end portion extending through the slot, and operate the corner finishing device to pull the end portion through the slot in a first direction to thereby drive the corner towards, and optionally into contact with, the slot. operate at least one of the conveyor and the corner finishing device to arrange the textile work product with the corner in alignment with the corner finishing device ; and operate the corner finishing device to apply a heat seal to the end portion at the corner and cut the end portion at the heat seal to close the binding tape at the corner, wherein the corner finishing device comprises a heat sealing unit which is operable to form a slot with a height that is smaller than a thickness of the binding tape on the second edge, wherein the control device is configured to, before operating the corner finishing device to apply the heat seal, operate at least one of the conveyor and the corner finishing device to arrange the end portion to extend through the heat sealing unit , operate the heat sealing unit to form the slot with the end portion extending through the slot, and operate the corner finishing device to pull the end portion through the slot in a first direction to thereby drive the corner towards, and optionally into contact with, the slot.
A method for estimating a fundamental component V ^ pcc 1 of an AC voltage ( V pcc ), the method comprising: receiving a timely varying measurement signal of the AC voltage ( Vp cc ); parametrizing a fundamental component V ^ pcc 1 of the AC voltage ( V pcc ) , the fundamental component V ^ pcc 1 having a rated frequency, a variable amplitude and a variable phase shift; determining parameters ( x̂ ( kT s )) of the fundamental component V ^ pcc 1 based on minimizing a cost function ( J ), wherein the cost function ( J ) is based on an integral of a norm of a difference between the measurement signal and the parametrized fundamental component via a time horizon ( h ), the time horizon ( h ) starting at an actual time point and going back via a predefined length, characterized in the cost function ( J ) comprises a term based on a norm of the difference between a value of the fundamental component V ^ pcc 1 at the actual time point and a value of a previously estimated fundamental component V ^ pcc 1 ∗ at the actual time point, wherein the previously estimated fundamental component has been determined for a previous time point. receiving a timely varying measurement signal of the AC voltage ( Vp cc ); parametrizing a fundamental component V ^ pcc 1 of the AC voltage ( V pcc ) , the fundamental component V ^ pcc 1 having a rated frequency, a variable amplitude and a variable phase shift; determining parameters ( x̂ ( kT s )) of the fundamental component V ^ pcc 1 based on minimizing a cost function ( J ), wherein the cost function ( J ) is based on an integral of a norm of a difference between the measurement signal and the parametrized fundamental component via a time horizon ( h ), the time horizon ( h ) starting at an actual time point and going back via a predefined length, characterized in the cost function ( J ) comprises a term based on a norm of the difference between a value of the fundamental component V ^ pcc 1 at the actual time point and a value of a previously estimated fundamental component V ^ pcc 1 ∗ at the actual time point, wherein the previously estimated fundamental component has been determined for a previous time point.
A semiconductor device package comprising one or more semiconductor devices and an interposer substrate ; the interposer substrate comprising a metallization stack; the one or more semiconductor devices electrically coupled to the metallization stack, said metallization stack comprising a plurality of interconnected metallization layers, wherein a metal-insulator-metal capacitor is formed between two of said metallization layers, a lower layer (M1) and an upper layer (M2), said layers being directly adjacent in the metallization stack, wherein said capacitor comprises : • At least a portion of a bottom plate which is part of the lower metallization layer (M1), • At least a portion of a first conductive layer on and in contact with said bottom plate, • A dielectric layer on and in contact with said first conductive layer, • A second conductive layer on and in contact with said dielectric layer, • A top plate which is a first part of the upper metallization layer, said top plate being on and in contact with said second conductive layer and extending vertically from the second conductive layer to a top surface level of the upper metallization layer, wherein the first conductive layer extends beyond the surface of the dielectric layer and the second conductive layer , thus forming an extension portion laterally extending beyond an area covered by the dielectric layer and the second conductive layer; and wherein the metallization stack further comprises a conductive via which forms a second part of the upper metallization layer and is laterally separated from the first part of the upper metallization layer, the conductive via extending vertically from the extension portion of the first conductive layer to the top surface level of the upper metallization layer. • At least a portion of a bottom plate which is part of the lower metallization layer (M1), • At least a portion of a first conductive layer on and in contact with said bottom plate, • A dielectric layer on and in contact with said first conductive layer, • A second conductive layer on and in contact with said dielectric layer, • A top plate which is a first part of the upper metallization layer, said top plate being on and in contact with said second conductive layer and extending vertically from the second conductive layer to a top surface level of the upper metallization layer,
A temperature measurement assembly , comprising: a bearing plate , wherein a first side of the bearing plate is provided with a bearing region ; a heat-conducting sheet arranged on a second side of the bearing plate , wherein the heat-conducting sheet is attached to the bearing plate ; characterized in that the temperature measurement assembly comprises: a heating coil arranged on a side of the heat-conducting sheet away from the bearing plate , wherein the heating coil is provided with a plurality of positioning grooves ; and a plurality of temperature-sensing members arranged on the second side of the bearing plate , wherein an end of each temperature-sensing member abuts against the heat-conducting sheet ; wherein the heat-conducting sheet is provided with a plurality of positioning columns extending in a thickness direction of the bearing plate , and an assembly of the heat-conducting sheet and the heating coil is achieved by a matching of the positioning columns and the positioning grooves . a bearing plate , wherein a first side of the bearing plate is provided with a bearing region ; a heat-conducting sheet arranged on a second side of the bearing plate , wherein the heat-conducting sheet is attached to the bearing plate ; characterized in that the temperature measurement assembly comprises: a heating coil arranged on a side of the heat-conducting sheet away from the bearing plate , wherein the heating coil is provided with a plurality of positioning grooves ; and a plurality of temperature-sensing members arranged on the second side of the bearing plate , wherein an end of each temperature-sensing member abuts against the heat-conducting sheet ; wherein the heat-conducting sheet is provided with a plurality of positioning columns extending in a thickness direction of the bearing plate , and an assembly of the heat-conducting sheet and the heating coil is achieved by a matching of the positioning columns and the positioning grooves . a heating coil arranged on a side of the heat-conducting sheet away from the bearing plate , wherein the heating coil is provided with a plurality of positioning grooves ; and a plurality of temperature-sensing members arranged on the second side of the bearing plate , wherein an end of each temperature-sensing member abuts against the heat-conducting sheet ; wherein the heat-conducting sheet is provided with a plurality of positioning columns extending in a thickness direction of the bearing plate , and an assembly of the heat-conducting sheet and the heating coil is achieved by a matching of the positioning columns and the positioning grooves .
A connection structure, comprising: a case ; a circuit board disposed in the case and located at a distance from an inner bottom surface of the case, wherein the circuit board has a through-hole; an electronic component disposed around the through-hole and between the inner bottom surface of the case and the circuit board, wherein the electronic component has a conducting wire and a conducting plate electrically connected to the conducting wire; characterized in that said connection structure further comprises a conductive connector being a copper post disposed between the through-hole and the conducting plate and electrically connected to the conducting plate, wherein the electronic component is electrically connected to the circuit board through the conductive connector; an insulated connector corresponding to the conductive connector and disposed between the conducting plate and the inner bottom surface of the case; and a fastener connected to the conductive connector through the through-hole, wherein a support post is formed from the case, and the support post is pressed against the bottom of the insulated connector. a case ; a circuit board disposed in the case and located at a distance from an inner bottom surface of the case, wherein the circuit board has a through-hole; an electronic component disposed around the through-hole and between the inner bottom surface of the case and the circuit board, wherein the electronic component has a conducting wire and a conducting plate electrically connected to the conducting wire; characterized in that said connection structure further comprises a conductive connector being a copper post disposed between the through-hole and the conducting plate and electrically connected to the conducting plate, wherein the electronic component is electrically connected to the circuit board through the conductive connector; an insulated connector corresponding to the conductive connector and disposed between the conducting plate and the inner bottom surface of the case; and a fastener connected to the conductive connector through the through-hole, wherein a support post is formed from the case, and the support post is pressed against the bottom of the insulated connector.
Construction machine , the construction machine being a feeder vehicle or a road finisher , and the construction machine comprising an operating platform , a material hopper , a conveyor belt system and an electronic control system , wherein the conveyor belt system comprises a conveyor belt and one or more weight sensors which are configured to measure the weight force of the paving material located on the conveyor belt , and one or more inclination sensors which are configured to measure an inclination angle (α) and/or a roll angle (β) of the conveyor belt system , characterized in that the electronic control system is configured to receive and process data from the weight sensors and the inclination sensors to calculate a mass of the paving material , wherein the electronic control system is configured to calculate a mass per area on the basis of the determined mass of the processed paving material and the width (B) and length (L) of the laid road surface , and the electronic control system is configured to calculate a demand for paving material on the basis of the determined mass per area of the laid road surface and known dimensions (B1, L1) of an area still to be asphalted. wherein the electronic control system is configured to calculate a mass per area on the basis of the determined mass of the processed paving material and the width (B) and length (L) of the laid road surface , and the electronic control system is configured to calculate a demand for paving material on the basis of the determined mass per area of the laid road surface and known dimensions (B1, L1) of an area still to be asphalted.
A method for performing wireless communication by a first device , the method comprising: obtaining configuration information regarding a set of physical sidelink feedback channel, PSFCH, resource blocks, RBs, for PSFCH transmission; receiving, from a second device , a physical sidelink shared channel, PSSCH; determining, based on at least one subchannel and a slot allocated for the PSSCH, at least one PSFCH resource among the set of PSFCH RBs, wherein the at least one subchannel is related to one or more PSFCH resources including the at least one PSFCH resource, and wherein the at least one PSFCH resource is related to the slot; determining, based on a source identifier, ID, of the second device , a PSFCH resource among the at least one PSFCH resource; and transmitting, to the second device , hybrid automatic repeat request, HARQ, feedback based on the PSFCH resource. obtaining configuration information regarding a set of physical sidelink feedback channel, PSFCH, resource blocks, RBs, for PSFCH transmission; receiving, from a second device , a physical sidelink shared channel, PSSCH; determining, based on at least one subchannel and a slot allocated for the PSSCH, at least one PSFCH resource among the set of PSFCH RBs, wherein the at least one subchannel is related to one or more PSFCH resources including the at least one PSFCH resource, and wherein the at least one PSFCH resource is related to the slot; determining, based on a source identifier, ID, of the second device , a PSFCH resource among the at least one PSFCH resource; and transmitting, to the second device , hybrid automatic repeat request, HARQ, feedback based on the PSFCH resource.
A method of manufacturing a hyaluronate fiber through melt spinning, comprising the steps of: (a) controlling a water content of a hyaluronate having a weight average molecular weight of 500 ∼ 3,000 kDa to 5 ∼ 20%; (b) producing a hyaluronate fiber by placing the hyaluronate having a controlled water content in a melt-spinning apparatus and performing heating to 150 ∼ 200°C and then high-pressure spinning; and (c) hardening a surface of the hyaluronate fiber by immersing the hyaluronate fiber in an ethanol aqueous solution. (a) controlling a water content of a hyaluronate having a weight average molecular weight of 500 ∼ 3,000 kDa to 5 ∼ 20%; (b) producing a hyaluronate fiber by placing the hyaluronate having a controlled water content in a melt-spinning apparatus and performing heating to 150 ∼ 200°C and then high-pressure spinning; and (c) hardening a surface of the hyaluronate fiber by immersing the hyaluronate fiber in an ethanol aqueous solution.
A method for separating methane from nitrogen, using a feed containing a mixture of at least methane and nitrogen, comprising contacting the feed with an adsorbent comprising a porous support wherein the porous support comprises exchangeable cations and at least a portion of the exchangeable cations are organic cations, selected from a substituted ammonium cation, a substituted phosphonium cation or an organic nitrogen-containing cation, wherein the porous support has pore diameters large enough to adsorb methane, and wherein the porous support is a zeolite or an aluminosilicate.