mhurhangee/patent-ind-claim-en huggingface dataset:
System for gripping a key , the gripping system comprising a hollow casing , which extends along a transversal direction (Y) between two lateral sides (CLAT1, CLAT2) open to an outside environment (EXT), said casing extending longitudinally along a longitudinal direction (X) from a rear side (CARR) to a front side (CAV), the front side (CAV) being open to the outside environment (EXT), the gripping system including two supports partially arranged in said casing , said two supports respectively including two recesses forming an accommodation space with variable geometry configured to contain said key , at least partially, said two supports each being rotationally mobile with respect to said casing so as to approach each other until they reach a blocking position (POS1) in which said key is blocked and so as to move away from each other until they reach a displacement position (POS2) in which said key is translationally mobile along said longitudinal direction (X) in said accommodation space , each support coming out of the casing sideways, through a so-called lateral side (CLAT1, CLAT2) and having a supporting portion disposed outside said casing .
Cable fixation device for a fixation of at least one cable , in particular an optical fibre cable, with at least one cable fixation inside element (10a; 10b) and at least one cable fixation outside element (12a; 12b), which are supported in such a way that they are rotatable around a rotation axis (14a; 14b) relative to one another and which are configured, in at least one application state, to at least substantially completely together encompass the at least one cable in a cable circumferential direction , the at least one cable fixation inside element (10a; 10b) comprising at least one tension relief unit (30a; 30b) that is configured to receive tension forces of the at least one cable , characterised in that the at least one tension relief unit (30a; 30b) comprises at least two main clamp elements (32a, 34a, 36a; 32b, 34b, 36b) which extend towards one another and which are configured to clamp at least one cable-stiffening fibre , in particular at least one cable-stiffening Kevlar fibre.
Assembly comprising a first part and a second part , said assembly comprising a disconnectable coupling system provided with a mechanical fuse for rigidly connecting along a movement axis (AX1) for moving said first part and the second part up to a breaking threshold, said assembly comprising at least one single-use friction brake interposed between said first part and said second part , said friction brake braking a movement of the first part relative to the second part following a breakage of said mechanical fuse , said friction brake comprising a pin that at rest is wedged in a housing of the second part before said breakage, said pin being arranged opposite a wall of the first part , said pin and said wall being movable relative to each other following said breakage, characterised in that said wall exerts, following said breakage and said movement, a force (F) on said pin translationally moving said pin relative to the second part .
A method for monitoring the operation of an aircraft , from a map of operating states of aircraft , said map of operating states being created from a map background established from a database of operating states of a fleet of aircraft storing series of parameters , each series of parameters comprising parameters characterizing an operating state of one of said aircraft and possibly at least one item of degradation information indicative of a degradation level of the aircraft, said map background comprising a set of cells each described by a code vector close to one or several series of parameters stored in said database, wherein a computer performs the step of: - determining a series of parameters characterizing an operating state of the aircraft to be monitored, from data measured on the aircraft to be monitored, characterized in that to at least one of said cells is assigned at least one degradation level relating to an item of degradation information, corresponding to the proportion of the series of parameters comprising said item of degradation information from among the series of parameters close to the code vector of said cell, and in that the computer performs the following steps: - projecting the series of determined parameters in a cell, a so-called target cell, of the map of operating states of aircraft , and - acquiring said at least one degradation level assigned to said target cell. - determining a series of parameters characterizing an operating state of the aircraft to be monitored, from data measured on the aircraft to be monitored, - projecting the series of determined parameters in a cell, a so-called target cell, of the map of operating states of aircraft , and - acquiring said at least one degradation level assigned to said target cell.
Fe-Cr-Ni alloy comprising: C ≤ 0.05%, Si: 0.1 to 0.8%, Mn: 0.2 to 0.8%, P ≤ 0.03%, S ≤ 0.001%, Ni:16 to 35 %, Cr: 18 to 25%, Al: 0.2 to 0.4%, Ti: 0.25 to 0.4%, N: 0.006 to 0.016%, Mg: 0.0015 to 0.008%, Ca ≤ 0.005%, O: 0.0002 to 0.005%, optionally Mo: 0.5 to 2.5% in mass% and Fe and inevitable impurities as the remainder, wherein Ti and N satisfy %N x %Ti ≤ 0.0045 and the number of TiN inclusions not smaller than 5 μm is 20 to 200 pieces/cm 2 at a freely selected cross section, and the alloy contains CaO-MgO-Al 2 O 3 as an oxide type inclusion as a necessary component, contains one or more kinds selected from MgO·Al 2 O 3 , MgO and CaO as a freely selected component, and ratio of numbers of MgO and CaO is not more than 50%, where the inclusions are measured and distinguished by the methods indicated in the description. C ≤ 0.05%, Si: 0.1 to 0.8%, Mn: 0.2 to 0.8%, P ≤ 0.03%, S ≤ 0.001%, Ni:16 to 35 %, Cr: 18 to 25%, Al: 0.2 to 0.4%, Ti: 0.25 to 0.4%, N: 0.006 to 0.016%, Mg: 0.0015 to 0.008%, Ca ≤ 0.005%, O: 0.0002 to 0.005%, optionally Mo: 0.5 to 2.5% in mass% and Fe and inevitable impurities as the remainder, wherein Ti and N satisfy %N x %Ti ≤ 0.0045 and the number of TiN inclusions not smaller than 5 μm is 20 to 200 pieces/cm 2 at a freely selected cross section, and the alloy contains CaO-MgO-Al 2 O 3 as an oxide type inclusion as a necessary component, contains one or more kinds selected from MgO·Al 2 O 3 , MgO and CaO as a freely selected component, and ratio of numbers of MgO and CaO is not more than 50%, where the inclusions are measured and distinguished by the methods indicated in the description.
Screw having - a shank , wherein the shank has a tip end , a rear end , and a longitudinal axis extending through the tip end and through the rear end , wherein the tip end and the rear end are opposite ends of the shank , and - a screw thread , which is connected to the shank , and which winds around the shank , - wherein a wedge groove is provided in the shank , which wedge groove winds around the shank and extends alongside at least a section of the screw thread , wherein the wedge groove is delimited by a rearwardly tapered wedge flank for wedging a grout shell surrounding the shank , characterized in that at least one ridge is provided within the wedge groove , wherein the ridge compartmentalizes the wedge groove . - a shank , wherein the shank has a tip end , a rear end , and a longitudinal axis extending through the tip end and through the rear end , wherein the tip end and the rear end are opposite ends of the shank , and - a screw thread , which is connected to the shank , and which winds around the shank , - wherein a wedge groove is provided in the shank , which wedge groove winds around the shank and extends alongside at least a section of the screw thread , wherein the wedge groove is delimited by a rearwardly tapered wedge flank for wedging a grout shell surrounding the shank ,
A decorative element comprising a faceted transparent body having a front surface and a back surface , and a coating on at least part of the back surface of the faceted transparent body , wherein the coating comprises a reflective layer of semiconductor material and a layer of lacquer over the reflective layer such that the reflective layer lies in between the lacquer and the faceted transparent body , and wherein the reflective layer of semiconductor material has a thickness of at least 250 nm.
A method for machining a workpiece (WS) on a numerically controlled machine tool with a tool (WZ), comprising: controlling a relative motion of the tool (WZ) with respect to the workpiece (WS) based on predetermined control data for machining the workpiece (WS), wherein the control data indicates the relative motion to be controlled of the tool (WZ) with respect to the workpiece (WS) at least in a first machining direction, and an advancing speed in the relative motion of the tool (WZ) with respect to the workpiece (WS) at least in the first machining direction, and the control data indicates changes in the advancing speed in the relative motion of the tool (WZ) with respect to the workpiece (WS) at least in the first machining direction, characterized in that the changes in the advancing speed are predetermined based on a pattern coding predetermined information, and the pattern coding the predetermined information is generated optically readable on the surface of the workpiece in the relative motion of the tool (WZ) with respect to the workpiece (WS) based on the control data. controlling a relative motion of the tool (WZ) with respect to the workpiece (WS) based on predetermined control data for machining the workpiece (WS), wherein the control data indicates the relative motion to be controlled of the tool (WZ) with respect to the workpiece (WS) at least in a first machining direction, and an advancing speed in the relative motion of the tool (WZ) with respect to the workpiece (WS) at least in the first machining direction, and the control data indicates changes in the advancing speed in the relative motion of the tool (WZ) with respect to the workpiece (WS) at least in the first machining direction, characterized in that the changes in the advancing speed are predetermined based on a pattern coding predetermined information, and the pattern coding the predetermined information is generated optically readable on the surface of the workpiece in the relative motion of the tool (WZ) with respect to the workpiece (WS) based on the control data.
A photocurable resin composition, comprising: an allylic polymer (A) produced by polymerization of an allylic compound represented by the formula (I) below; and a tackifier resin (B) having an SP value of 7.0 to 10.0 as calculated by the Fedors' method described in Polymer Engineering and Science, 14, , 147 , wherein the amount of the tackifier resin (B) is 50 to 1,000 parts by weight, relative to 100 parts by weight of the allylic polymer (A) in the photocurable resin composition; wherein R 1 and R 2 each represent H or CH 3 ; X represents an a-valent group having an unsubstituted saturated or partially unsaturated four- to eight-membered cyclic structure; and a represents 2 or 3. an allylic polymer (A) produced by polymerization of an allylic compound represented by the formula (I) below; and a tackifier resin (B) having an SP value of 7.0 to 10.0 as calculated by the Fedors' method described in Polymer Engineering and Science, 14, , 147 , wherein the amount of the tackifier resin (B) is 50 to 1,000 parts by weight, relative to 100 parts by weight of the allylic polymer (A) in the photocurable resin composition; wherein R 1 and R 2 each represent H or CH 3 ; X represents an a-valent group having an unsubstituted saturated or partially unsaturated four- to eight-membered cyclic structure; and a represents 2 or 3.
A cosmetic composition comprising component (A): a compound represented by the formula wherein R 1 and R 2 are each independently an alkyl group having 5 - 21 carbon atoms or an alkenyl group having 5 - 21 carbon atoms, R 3 and R 4 are each independently a hydrogen atom, an alkyl group having 1 - 22 carbon atoms or an alkenyl group having 2 - 22 carbon atoms, z is an integer of 7 or 8, x and y are each independently an integer of 2 - 4, or a salt thereof, and component (B): a cationic surfactant. R 1 and R 2 are each independently an alkyl group having 5 - 21 carbon atoms or an alkenyl group having 5 - 21 carbon atoms, R 3 and R 4 are each independently a hydrogen atom, an alkyl group having 1 - 22 carbon atoms or an alkenyl group having 2 - 22 carbon atoms, z is an integer of 7 or 8, x and y are each independently an integer of 2 - 4, or a salt thereof, and
A method of enabling functionality at a User Plane Function, UPF, by a Session Management Function, SMF, in a telecommunication network, wherein said UPF comprises a list of profiles , wherein each profile comprises one or more possible functionalities that can be enabled for a session, wherein said method comprises the steps of: - receiving , by said UPF , a session creation/modification message for creating/modifying a session between said UPF and said SMF , wherein said session creation/modification message comprises a session functionality indication for indicating functionality to be enabled for said session and wherein said session functionality indication comprises a particular profile among said list of profiles that is to be enabled for said session; - enabling, by said UPF , said one or more functionalities associated with said particular profile during said session between said UPF and said SMF ; and the method being characterized in that said list of profiles comprises a first profile comprising Distributed Denial of Service, DDoS, protection functionality, and wherein said session is a Packet Forwarding Control Protocol, PFCP, session, and wherein said session functionality indication indicates to activate the first profile comprising Distributed Denial of Service, DDoS, protection functionality that mitigates DDoS attacks. - receiving , by said UPF , a session creation/modification message for creating/modifying a session between said UPF and said SMF , wherein said session creation/modification message comprises a session functionality indication for indicating functionality to be enabled for said session and wherein said session functionality indication comprises a particular profile among said list of profiles that is to be enabled for said session; - enabling, by said UPF , said one or more functionalities associated with said particular profile during said session between said UPF and said SMF ; and
A packaging for storing goods, in particular rod-shaped goods like cigarettes, tobacco sticks and the like, including - a front wall and a rear wall , sidewalls connecting the front and rear walls , as well as - a bottom construction for form ing a storage space for the goods, and - a lid construction including a lid front wall , a lid top wall and a lid rear wall , wherein the lid construction is hinged to an end of the rear wall opposing the bottom construction via a bending line , and - an inner frame arranged within the packaging , wherein the inner frame includes - a front wall , - sidewalls , which are connected to the front wall via bending lines , and - at least one engagement and vision hollow in the area of the front wall , and wherein the front wall comprises at least one wall element at least partially detachably connected to the front wall , wherein the wall element is formed such that it at least partially covers the engagement and vision hollow , and wherein at least one further wall element is hinged to the wall element on the side opposing the front wall , characterized in that the further wall element is formed as a locking flap such that it locks with a locking element of the lid construction in closed state of the packaging , wherein the locking element is formed by means of a terminal edge of an internal lid wall of the lid construction and/or at least one recess formed in an internal lid wall . - a front wall and a rear wall , sidewalls connecting the front and rear walls , as well as - a bottom construction for form ing a storage space for the goods, and - a lid construction including a lid front wall , a lid top wall and a lid rear wall , wherein the lid construction is hinged to an end of the rear wall opposing the bottom construction via a bending line , and - an inner frame arranged within the packaging , wherein the inner frame includes - a front wall , - sidewalls , which are connected to the front wall via bending lines , and - at least one engagement and vision hollow in the area of the front wall , and - a front wall , - sidewalls , which are connected to the front wall via bending lines , and - at least one engagement and vision hollow in the area of the front wall , and wherein the front wall comprises at least one wall element at least partially detachably connected to the front wall , wherein the wall element is formed such that it at least partially covers the engagement and vision hollow , and wherein at least one further wall element is hinged to the wall element on the side opposing the front wall , characterized in that the further wall element is formed as a locking flap such that it locks with a locking element of the lid construction in closed state of the packaging , wherein the locking element is formed by means of a terminal edge of an internal lid wall of the lid construction and/or at least one recess formed in an internal lid wall .
An electronic assembly comprising: a semiconductor device having conductive pads on a device first side , a metallic region on a device second side opposite the first side , and a metallic region comprising a metallic central region on the device first side. ; a lead frame for providing separate terminals that are electrically and mechanically connected to the conductive pads ; a first heat sink comprising a first component having a mating side , a portion of the mating side directly bonded with the metallic region of the semiconductor device and having an opposite side opposite the mating side ; and a circuit board having an opening , the semiconductor device and the lead frame extending at or outward toward a board first side of the circuit board , a board second side of the circuit board opposite the first side , a plurality of board conductive pads being on the board first side of the circuit board to align with the corresponding terminals of the lead frame for electrical connection therewith. a semiconductor device having conductive pads on a device first side , a metallic region on a device second side opposite the first side , and a metallic region comprising a metallic central region on the device first side. ; a lead frame for providing separate terminals that are electrically and mechanically connected to the conductive pads ; a first heat sink comprising a first component having a mating side , a portion of the mating side directly bonded with the metallic region of the semiconductor device and having an opposite side opposite the mating side ; and a circuit board having an opening , the semiconductor device and the lead frame extending at or outward toward a board first side of the circuit board , a board second side of the circuit board opposite the first side , a plurality of board conductive pads being on the board first side of the circuit board to align with the corresponding terminals of the lead frame for electrical connection therewith.
Method for determining the state of charge of an energy storage cell, in particular of an electrochemical energy store, wherein the voltage (U_cell) applied to the energy storage cell and the current (I_cell) supplied or taken up by the energy storage cell are detected, characterized in that in a first method step a value table , in particular a characteristic diagram, is created, which assigns a state of charge to an internal cell voltage and to a charge-related voltage gradient calculated on the basis of the internal cell voltage (u_i,q), wherein in a second method step, chronologically after the first method step, from the respective currently determined internal cell voltage and the respective currently determined charge-related voltage gradient a state of charge is assigned by means of the value table , in particular the characteristic diagram, wherein the detected values of the current of the cell are fed to an integral element, from the output signal (Q_counter) of which a charge-discrete sampling signal (d_q) is generated, in particular by means of a computer element that determines a modulo value, wherein the value of the voltage applied to the cell is detected in a manner controlled by the charge-discrete sampling signal and is fed to a first hold element, from the output signal of which the output signal of a proportional element is subtracted in order to determine the internal cell voltage (u_i,q), wherein the value of the current of the cell supplied or taken up by the energy storage cell is detected in a manner controlled by the charge-discrete sampling signal and is fed to a second hold element, the output signal of which is fed as an input signal to the proportional element. characterized in that in a first method step a value table , in particular a characteristic diagram, is created, which assigns a state of charge to an internal cell voltage and to a charge-related voltage gradient calculated on the basis of the internal cell voltage (u_i,q), wherein in a second method step, chronologically after the first method step, from the respective currently determined internal cell voltage and the respective currently determined charge-related voltage gradient a state of charge is assigned by means of the value table , in particular the characteristic diagram, wherein the detected values of the current of the cell are fed to an integral element, from the output signal (Q_counter) of which a charge-discrete sampling signal (d_q) is generated, in particular by means of a computer element that determines a modulo value, wherein the value of the voltage applied to the cell is detected in a manner controlled by the charge-discrete sampling signal and is fed to a first hold element, from the output signal of which the output signal of a proportional element is subtracted in order to determine the internal cell voltage (u_i,q), wherein the value of the current of the cell supplied or taken up by the energy storage cell is detected in a manner controlled by the charge-discrete sampling signal and is fed to a second hold element, the output signal of which is fed as an input signal to the proportional element.
A kit for the optimisation of the expression of a protein in a eukaryotic cell comprising at least two different secretion cassettes, wherein each of said secretion cassettes comprises a first set of genetic elements comprising at least a promoter 3' end, a 5'UTR, and a signal sequence (SS), and a second set of genetic elements comprising at least a 3'UTR and a poly(A)-site downstream region, wherein said first set is upstream of said second set, wherein the at least two secretion cassettes comprise (i) a secretion cassette comprising SEQ ID NO:1 as said promoter 3' end, SEQ ID NO:2 as said 5'UTR, SEQ ID NO: 8 as said SS, SEQ ID NO: 10 as said 3'UTR and SEQ ID NO:11 as said poly(A)-site downstream region; and (ii) a secretion cassette comprising SEQ ID NO:1 as said promoter 3' end, SEQ ID NO:2 as said 5'UTR, SEQ ID NO: 7 as said SS, SEQ ID NO: 16 as said 3'UTR and SEQ ID NO:11 as said poly(A)-site downstream region. (i) a secretion cassette comprising SEQ ID NO:1 as said promoter 3' end, SEQ ID NO:2 as said 5'UTR, SEQ ID NO: 8 as said SS, SEQ ID NO: 10 as said 3'UTR and SEQ ID NO:11 as said poly(A)-site downstream region; and (ii) a secretion cassette comprising SEQ ID NO:1 as said promoter 3' end, SEQ ID NO:2 as said 5'UTR, SEQ ID NO: 7 as said SS, SEQ ID NO: 16 as said 3'UTR and SEQ ID NO:11 as said poly(A)-site downstream region.