mhurhangee/patent-ind-claim-en huggingface dataset:
A drive chain for stitch formation members of a circular knitting machine, comprising: - an element incorporating a stitch formation member or operatively coupled or to be coupled with a stitch formation member; wherein said element has a first butt configured for engaging into first paths defined by first actuating cams of a circular knitting machine; - an oscillating lever connected to said element on a junction area and extending, with respect to said element , on the opposed side to said stitch formation member; the oscillating lever exhibiting a second butt ; wherein the oscillating lever is configured for interacting with at least one selecting device of the circular knitting machine so as to oscillate with respect to said element between an extracted position, in which the second butt is taken out of a respective groove of a support of the circular knitting machine and is engaged with second paths defined by second actuating cams , and a retracted position, in which the second butt is retracted into the respective groove so as not to engage into said second paths ; characterised in that the element exhibiting the first butt comprises a first portion carrying the first butt and a second portion configured for slidingly coupling with a bottom of the respective groove ; and in that the first portion is elastically coupled with the second portion so as to keep the first butt in an operating position in which said butt protrudes from the groove and to allow the first butt to get back into the groove in case of interference with one of the first actuating cams . - an element incorporating a stitch formation member or operatively coupled or to be coupled with a stitch formation member; wherein said element has a first butt configured for engaging into first paths defined by first actuating cams of a circular knitting machine; - an oscillating lever connected to said element on a junction area and extending, with respect to said element , on the opposed side to said stitch formation member; the oscillating lever exhibiting a second butt ; wherein the oscillating lever is configured for interacting with at least one selecting device of the circular knitting machine so as to oscillate with respect to said element between an extracted position, in which the second butt is taken out of a respective groove of a support of the circular knitting machine and is engaged with second paths defined by second actuating cams , and a retracted position, in which the second butt is retracted into the respective groove so as not to engage into said second paths ; characterised in that the element exhibiting the first butt comprises a first portion carrying the first butt and a second portion configured for slidingly coupling with a bottom of the respective groove ; and in that the first portion is elastically coupled with the second portion so as to keep the first butt in an operating position in which said butt protrudes from the groove and to allow the first butt to get back into the groove in case of interference with one of the first actuating cams .
Base element for forming a support structure (S) for a surface area, the base element comprising a deck and a bottom structure interconnected by at least an array of columns and at least one void (V) formed between the deck and the bottom structure for receiving a fluid, and wherein the deck is provided with openings for passing fluids into and/or from said void (V), wherein in at least one of said openings a plug is provided, wherein said plug is provided with a connector for connecting an artefact to said plug or said plug is integral with an artefact , characterized in that the plug is provided with at least one wing element which extends outward from a plug body of the plug , such that in a first position said wing element can extend below the deck or in or below a part of the base element below said deck , for example in or below the bottom structure , for locking the plug in said opening , and in a second position said wing element can pass through said opening for placing and/or removing said plug from said opening .
A linerless label or tape comprising a substantially biodegradable, woven or non-woven, natural or synthetic substrate and, impregnated therein, a formulation comprising at least 90 weight percent of a polyester amide segmented block copolymer.
A method of wireless communication comprising: determining, by a user equipment , a time division duplex, TDD, configuration and a multicast-broadcast single-frequency network, MBSFN, configuration of a serving cell ; receiving, by the user equipment , a two-bit neighbor cell configuration information indicating at least one of a TDD configuration of one or more neighboring cells compared to the TDD configuration of the serving cell and an MBSFN configuration of one or more neighboring cells compared to the MBSFN configuration of the serving cell ; receiving, by the user equipment , a configuration of a discovery reference signal, DRS, for at least one of the one or more neighboring cells , wherein the configuration comprises at least a starting subframe index for the DRS; and determining, by the user equipment , whether a common reference signal, CRS, is present in one or more subframes of a duration of the DRS for the at least one of the one or more neighboring cells based on the received two-bit neighbor cell configuration information, the TDD configuration and the MBSFN configuration of the serving cell , and the starting subframe index for the DRS. determining, by a user equipment , a time division duplex, TDD, configuration and a multicast-broadcast single-frequency network, MBSFN, configuration of a serving cell ; receiving, by the user equipment , a two-bit neighbor cell configuration information indicating at least one of a TDD configuration of one or more neighboring cells compared to the TDD configuration of the serving cell and an MBSFN configuration of one or more neighboring cells compared to the MBSFN configuration of the serving cell ; receiving, by the user equipment , a configuration of a discovery reference signal, DRS, for at least one of the one or more neighboring cells , wherein the configuration comprises at least a starting subframe index for the DRS; and determining, by the user equipment , whether a common reference signal, CRS, is present in one or more subframes of a duration of the DRS for the at least one of the one or more neighboring cells based on the received two-bit neighbor cell configuration information, the TDD configuration and the MBSFN configuration of the serving cell , and the starting subframe index for the DRS.
A tow coating reactor system (10; 110) comprising: a reactor (12; 112) for receiving and coating fiber tow (14; 114), characterised in that the tow coating reactor system (10; 110) further comprises: a wedge (16; 116; 216) situated adjacent the reactor (12; 112) and configured to receive the fiber tow (14; 114) at a tip end (34; 134), such that as the fiber tow (14; 114) moves across the wedge (16; 116; 216), the wedge spreads the fiber tow (14; 114) into a plurality of sub-tows (18; 118), wherein the wedge includes: a tapered portion (32; 132) including a tip (34; 134) in line with the fiber tow (14; 114); an untapered portion downstream of the tapered portion (32; 132); and a plurality of longitudinal grooves , each of the plurality of longitudinal grooves configured to receive one of the plurality of sub-tows (18; 118). a wedge (16; 116; 216) situated adjacent the reactor (12; 112) and configured to receive the fiber tow (14; 114) at a tip end (34; 134), such that as the fiber tow (14; 114) moves across the wedge (16; 116; 216), the wedge spreads the fiber tow (14; 114) into a plurality of sub-tows (18; 118), wherein the wedge includes: a tapered portion (32; 132) including a tip (34; 134) in line with the fiber tow (14; 114); an untapered portion downstream of the tapered portion (32; 132); and a plurality of longitudinal grooves , each of the plurality of longitudinal grooves configured to receive one of the plurality of sub-tows (18; 118).
Method for operating an elastically mounted, path-bound or forcecontrolled forming machine , in which a working stroke of a ram device operatively connected to a drive is carried out by means of the drive , and a predefined forming process is carried out on a workpiece by a motion of the ram device during the respective working stroke, in interaction of an upper tool located on the ram device with a lower tool located on a tool table, wherein at least one kinematic variable (s(t), v(t), a(t) of a rigid body motion of the elastically mounted forming machine is detected [Claim 5] relative to the supporting foundation during the operation (T0) thereof (T0) by at least one acceleration sensor and/or by a motion sensor located between a machine housing and the supporting foundation , wherein the operation of the forming machine is controlled by a machine control and an output signal of the at least one motion sensor for detecting the at least one kinematic variable (s(t), v(t), a(t)) of the rigid body motion of the forming machine is supplied as an input signal to a machine control for controlling the forming machine , wherein the time of the initiation of the working stroke is adapted by the machine control to an instantaneous phase position of the at least one kinematic variable (s(t), v(t), a(t)) of the rigid body motion in order to generate inertial forces and/or moments of inertia so that the rigid body motion of the forming machine is counteracted and so that the inertial forces and/or moments of inertia occurring during operation due to the initiation of the working stroke and/or due to an imbalance in the drive are at least partially compensated, characterized in that a coupling device located between the drive and the ram device is activated by the machine control at the time of the initiation of the working stroke and/or for establishing an operative connection between the drive and the ram device . wherein the operation of the forming machine is controlled by a machine control and an output signal of the at least one motion sensor for detecting the at least one kinematic variable (s(t), v(t), a(t)) of the rigid body motion of the forming machine is supplied as an input signal to a machine control for controlling the forming machine , wherein the time of the initiation of the working stroke is adapted by the machine control to an instantaneous phase position of the at least one kinematic variable (s(t), v(t), a(t)) of the rigid body motion in order to generate inertial forces and/or moments of inertia so that the rigid body motion of the forming machine is counteracted and so that the inertial forces and/or moments of inertia occurring during operation due to the initiation of the working stroke and/or due to an imbalance in the drive are at least partially compensated, characterized in that a coupling device located between the drive and the ram device is activated by the machine control at the time of the initiation of the working stroke and/or for establishing an operative connection between the drive and the ram device .
Rotary joint component comprising a rotatable part and a stationary part stationary against the rotatable part , the rotatable part comprising a rotatable base holding at least one rotatable receiver coupler , the stationary part comprising a stationary base holding at least one stationary transmitter coupler , wherein the at least one stationary transmitter coupler is capacitively coupled to the at least one rotatable receiver coupler , characterized in, that the stationary transmitter coupler is mounted to a stationary carrier which comprises circular shaped sheet metal which is further held by the stationary base , wherein the stationary carrier is held within a slot or groove of the stationary base , and the stationary carrier comprises circular shaped sheet metal which has ends connected to each other.
Method for producing a plastic tank having reinforcements, comprising the following steps: providing a semifinished panel made of plastic to form at least one part of the tank wall of the plastic tank, wherein the semifinished panel has at least one outer layer composed of a first thermoplastic, providing at least one fibre-reinforced structural component as a reinforcement for the tank wall of the plastic tank, wherein the area of the fibre-reinforced structural component is smaller than the area of the semifinished panel , so that the fibre-reinforced structural component forms a "patch", wherein the fibre-reinforced structural component comprises a matrix composed of a second thermoplastic, wherein the second thermoplastic is weldable to the first thermoplastic, applying the fibre-reinforced structural component to a predefined region of the outer layer of the semifinished panel , passing the semifinished panel with the applied fibre-reinforced structural component through a continuous furnace , wherein the fibre-reinforced structural component fuses with the outer layer of the semifinished panel , forming the heated semifinished panel , together with the fibre-reinforced structural component fused therewith, into the final shape of at least said part of the tank wall, and connecting to at least one other part of the tank wall to form the complete tank wall of the plastic tank.
An automated fiber bundle placement apparatus comprising a supply device which a plurality of bobbins each having a fiber bundle wound thereon is mounted thereto and is configured to deliver the fiber bundle from each of the bobbins , a placing head configured to perform placement of each of the fiber bundles supplied from the supply device onto a placement die in a state of being aligned in a width direction and having a pressing device configured to press the fiber bundles onto the placement die , and a multi-jointed robot which the placing head is attached thereto and is configured to move the placing head for the placement, wherein the pressing device comprises a pressing part configured to be pressed against the placement die , a pressing mechanism including a drive device configured to apply a pressing force toward the placement die to the pressing part , and a drive control device configured to control drive of the drive device , wherein the drive control device comprises a drive command unit configured to output a drive command corresponding to a contact width of the placement die with the pressing part , the contact width being a length in the width direction of a part of the placement die facing in parallel to a contact range of the pressing part during pressing against the placement die , and is configured to control drive of the drive device to apply the pressing force corresponding to the drive command to the pressing part .
A cooking apparatus comprising: a cooking chamber ; and a door configured to open and close the cooking chamber and provided with a plurality of glass sheets , the door comprising a variable layer provided on at least one of the plurality of glass sheets and including a visible light transmittance variable depending on a temperature, wherein the variable layer comprises a photochromic or electrochromic material, the cooking apparatus further comprising a temperature sensor configured to measure a temperature of at least one of the plurality of glass sheets including the variable layer; and a signal outputter configured to output a signal varying the variable layer based on a temperature measured by the temperature sensor reaching a predetermined temperature. a cooking chamber ; and a door configured to open and close the cooking chamber and provided with a plurality of glass sheets , the door comprising a variable layer provided on at least one of the plurality of glass sheets and including a visible light transmittance variable depending on a temperature, wherein the variable layer comprises a photochromic or electrochromic material, the cooking apparatus further comprising a temperature sensor configured to measure a temperature of at least one of the plurality of glass sheets including the variable layer; and a signal outputter configured to output a signal varying the variable layer based on a temperature measured by the temperature sensor reaching a predetermined temperature.
Lighting module for automobile vehicles (V), including: - at least one optical module adapted to produce a first cut-off beam ; - a support plate for a heatsink ; - a heatsink adapted to receive said optical module ; - said support plate including a first surface ; characterized in that - said heatsink includes rotational adjustment means adapted: - to enter into contact with the first surface of said support plate ; and - to pivot about a particular rotation axis (Ax) so as to position the first cut-off beam produced by said optical module at a reference position (P). - at least one optical module adapted to produce a first cut-off beam ; - a support plate for a heatsink ; - a heatsink adapted to receive said optical module ; - said support plate including a first surface ; - said heatsink includes rotational adjustment means adapted: - to enter into contact with the first surface of said support plate ; and - to pivot about a particular rotation axis (Ax) so as to position the first cut-off beam produced by said optical module at a reference position (P). - to enter into contact with the first surface of said support plate ; and - to pivot about a particular rotation axis (Ax) so as to position the first cut-off beam produced by said optical module at a reference position (P).
An automatic gain control apparatus comprising: a first gain controlled element and a second gain controlled element , each of which has a signal input , a gain control input and a signal output , wherein the first gain controlled element and the second gain controlled element are coupled in series, with one or more power elements coupled therebetween, and wherein the signal input of the first gain controlled element constitutes an input of the automatic gain control apparatus; a first gain control device , having a pre-detection input which is coupled to the signal input of the first gain controlled element and an output which drives the gain control input of the first gain controlled element ; a second gain control device , having a pre-detection input and having an output which drives the gain control input of the second gain controlled element ; and characterised by a first simulator , coupled between the signal input of the first gain controlled element and the pre-detection input of the second gain control device , wherein the first simulator simulates frequency response of the power elements between the first gain controlled element and the second gain controlled element , to make a signal received by the pre-detection input of the second gain control device be matched with a signal received by the signal input of the second gain controlled element . a first gain controlled element and a second gain controlled element , each of which has a signal input , a gain control input and a signal output , wherein the first gain controlled element and the second gain controlled element are coupled in series, with one or more power elements coupled therebetween, and wherein the signal input of the first gain controlled element constitutes an input of the automatic gain control apparatus; a first gain control device , having a pre-detection input which is coupled to the signal input of the first gain controlled element and an output which drives the gain control input of the first gain controlled element ; a second gain control device , having a pre-detection input and having an output which drives the gain control input of the second gain controlled element ; and characterised by a first simulator , coupled between the signal input of the first gain controlled element and the pre-detection input of the second gain control device , wherein the first simulator simulates frequency response of the power elements between the first gain controlled element and the second gain controlled element , to make a signal received by the pre-detection input of the second gain control device be matched with a signal received by the signal input of the second gain controlled element .
A method for displaying a 3-D surface of a patient's teeth, the method executed at least in part on a computer and comprising iteratively repeating, one or more times, the steps of: a) acquiring (S100) a set comprising a plurality of members, wherein each member is a 3-D view of the teeth; b) generating (S200) relation data that associates each member of the set of 3-D views to at least one other member of the set according to at least displacement between the members; c) displaying a composite surface of the teeth, formed according to the generated relation data; d) detecting one or more positioning errors in the displayed composite surface by analyzing the connectivity of a connection graph model obtained from the generated relation data and re-generating (S300) at least a portion of the relation data to correct the one or more positioning errors in order to improve the connectivity of the connection graph using the re-generated relation data; and e) modifying (S400) the display to show a corrected composite surface formed according to the re-generated relation data; and f) updating the composite surface as additional members are acquired by repeating the steps a) to e). a) acquiring (S100) a set comprising a plurality of members, wherein each member is a 3-D view of the teeth; b) generating (S200) relation data that associates each member of the set of 3-D views to at least one other member of the set according to at least displacement between the members; c) displaying a composite surface of the teeth, formed according to the generated relation data; d) detecting one or more positioning errors in the displayed composite surface by analyzing the connectivity of a connection graph model obtained from the generated relation data and re-generating (S300) at least a portion of the relation data to correct the one or more positioning errors in order to improve the connectivity of the connection graph using the re-generated relation data; and e) modifying (S400) the display to show a corrected composite surface formed according to the re-generated relation data; and f) updating the composite surface as additional members are acquired by repeating the steps a) to e).
An apparatus having a surface exposable to a byproduct carbonaceous material formation environment, the surface comprising a perovskite material having an ABO 3 perovskite structure and being of formula A a B b O 3-δ , wherein 0.9<a ≤1.2; 0.9<b≤1.2; -0.5<δ<0.5; A is a combination of a first element and a second element, the first element is selected from yttrium (Y), bismuth (Bi), lanthanum (La), cerium (Ce), praseodymium (Pr), and any combination thereof, the second element is barium (Ba),; B is selected from cerium (Ceyttrium (Y), zirconium (Zr), and any combination thereof; the perovskite material is La 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3 , Ce 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3.05 , Ce 0.5 Ba 0.5 Ce 0.7 Zr 0.2 Y 0.1 O 3.45 , Y 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3 , Y 0.5 Ba 0.5 Ce 0.7 Zr 0.2 Y 0.1 O 3.2 , Bi 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3 , Bi 0.5 Ba 0.5 Ce 0.7 Zr 0.2 Y 0.1 O 3.2 , Pr 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3 , Pr 0.5 Ba 0.5 Ce 0.7 Zr 0.2 Y 0.1 O 3.2 , or any combination thereof. 0.9<a ≤1.2; 0.9<b≤1.2; -0.5<δ<0.5; A is a combination of a first element and a second element, the first element is selected from yttrium (Y), bismuth (Bi), lanthanum (La), cerium (Ce), praseodymium (Pr), and any combination thereof, the second element is barium (Ba),; B is selected from cerium (Ceyttrium (Y), zirconium (Zr), and any combination thereof; the perovskite material is La 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3 , Ce 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3.05 , Ce 0.5 Ba 0.5 Ce 0.7 Zr 0.2 Y 0.1 O 3.45 , Y 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3 , Y 0.5 Ba 0.5 Ce 0.7 Zr 0.2 Y 0.1 O 3.2 , Bi 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3 , Bi 0.5 Ba 0.5 Ce 0.7 Zr 0.2 Y 0.1 O 3.2 , Pr 0.1 Ba 0.9 Ce 0.7 Zr 0.2 Y 0.1 O 3 , Pr 0.5 Ba 0.5 Ce 0.7 Zr 0.2 Y 0.1 O 3.2 , or any combination thereof.