mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle lock with locking elements such as a lock latch and locking pawl, wherein the lock latch can be moved into a locking position in which it is in securing engagement with a locking wedge or the like and into an open position in which it releases the locking wedge or the like, wherein the locking pawl can be moved into a dropped-in position in which it secures the lock latch in a locking position and into a lifted-out position in which it releases the lock latch, wherein an electric opening drive for lifting out the locking pawl by motor is provided, wherein a lock mechanism for manually lifting out the locking pawl from the outside and from the inside by means of an external door handle and an internal door handle is provided, and wherein the lock mechanism can be moved into the "unlocked" mechanical lock state - UL -, "locked" mechanical lock state - CL -, and "secured against theft" mechanical lock state - DL -, wherein in the lock state UL the locking pawl can be lifted out manually from the outside and the inside, in the lock state CL it cannot be lifted out manually from the outside but can from the inside, and in the lock state DL it cannot be lifted out manually either from the outside or from the inside, wherein the arrangement is effected such that the lifting out of the locking pawl by motor is electrically disabled as long as the lock mechanism is in the lock state DL.
Manufacturing process for producing a fuse body for a fusible link for protecting an electric circuit, - wherein at least one predetermined first portion of the fuse body, which has a first physical mass density, and at least one predetermined second portion of the fuse body, which has a second physical mass density unequal to the first physical mass density, are produced by the manufacturing process, - so that the at least one first portion and the at least one second portion are adapted by the manufacturing process in their mechanical elasticity and also their mechanical strength to the respective local stress loading of the fuse body, characterized in that the fuse body is produced in one piece from insulating material by means of an additive manufacturing process. - wherein at least one predetermined first portion of the fuse body, which has a first physical mass density, and at least one predetermined second portion of the fuse body, which has a second physical mass density unequal to the first physical mass density, are produced by the manufacturing process, - so that the at least one first portion and the at least one second portion are adapted by the manufacturing process in their mechanical elasticity and also their mechanical strength to the respective local stress loading of the fuse body,
A method for use in scanning for wireless local area networks "WLANs," (104, 122, 312) by a mobile communication device, the method comprising: storing a set of WLAN profiles in memory of the mobile device, the set of WLAN profiles including one or more WLAN profiles having stationary WLAN indications and one or more WLAN profiles having mobile WLAN indications; identifying whether a velocity of the mobile device is less than or greater than a threshold value; while the velocity of the mobile device is less than the threshold value: scanning to search for one or more WLANs identified in and selected from the one or more WLAN profiles having the stationary WLAN indications; and while the velocity of the mobile device is greater than the threshold value: scanning to search for one or more WLANs identified and selected from the one or more WLAN profiles having the mobile WLAN indications. storing a set of WLAN profiles in memory of the mobile device, the set of WLAN profiles including one or more WLAN profiles having stationary WLAN indications and one or more WLAN profiles having mobile WLAN indications; identifying whether a velocity of the mobile device is less than or greater than a threshold value; while the velocity of the mobile device is less than the threshold value: scanning to search for one or more WLANs identified in and selected from the one or more WLAN profiles having the stationary WLAN indications; and while the velocity of the mobile device is greater than the threshold value: scanning to search for one or more WLANs identified and selected from the one or more WLAN profiles having the mobile WLAN indications.
A blood treatment device for treating a patient by means of dialysis, comprising at least one controller configured to control the device based on a computer-implemented method for calculating a value representing a refilling volume (V refill) of a patient that may be observed or found during or due to a blood treatment of the patient, wherein a target range of the relative blood volume (RBV_end) to be achieved by the blood treatment at the end of a treatment session is set based on a refilling volume (V refill) of the patient; wherein the refilling volume (V refill) is obtained by means of the following equation V _ refill = a ∗ UFV + b ∗ UFR hb _ start + c ∗ OH + d or V _ refill = a ∗ UFV / Hb + b ∗ OH + c wherein the relative blood volume (RBV_end) is obtained from the following equation V _ refill = UFV − BV _ start ∗ 1 − RBV _ end 100 or by RBV _ end = 100 ∗ V _ refill − UFV 0.1 ∗ LTM + 0.01 ∗ ATM + OH K _ Guyton + 100 wherein: a, b, c, d are parameters; hb _start stands for the haemoglobin concentration at the beginning of an blood treatment session; Hb is the haemoglobin concentration; V _refill stands for the refilling volume; UFV stands for the ultrafiltration volume; UFR stands for an ultrafiltration rate; OH stands for the patient's overhydration, e.g. at the beginning of a blood treatment session; ATM stands for the fat mass of the patient in question; LTM stands for the muscle mass of the patient in question; K_Guyton stands for the Guyton factor; and BV_start stands for the patient's absolute blood volume at the beginning of the treatment session. a, b, c, d are parameters; hb _start stands for the haemoglobin concentration at the beginning of an blood treatment session; Hb is the haemoglobin concentration; V _refill stands for the refilling volume; UFV stands for the ultrafiltration volume; UFR stands for an ultrafiltration rate; OH stands for the patient's overhydration, e.g. at the beginning of a blood treatment session; ATM stands for the fat mass of the patient in question; LTM stands for the muscle mass of the patient in question; K_Guyton stands for the Guyton factor; and BV_start stands for the patient's absolute blood volume at the beginning of the treatment session.
System to determine the impedance of an electrical facility being disconnected from its high or medium voltage power supply, comprising: • a signal injection unit arranged to inject a test signal (t 1) at a first main frequency (f 1) between a reference point of an electric circuit and ground and to inject another test signal (t 2) at a second main frequency (f 2) between a reference point of the electric circuit and ground, where the electric circuit is connected with the facility, • a signal conversion unit arranged to measure a first response voltage ( U 1 (f 1)) and a first response current ( I 1 (f 1)) in the electric circuit, where the first response voltage ( U 1 (f 1)) and the first response current ( I 1 (f 1)) result from the test signal (t 1), and to measure a second response voltage ( U 2 (f 2)) and a second response current ( I 2 (f 2)) as a result to the other test signal (t 2),and further characterized by • a processing device arranged to determine an impedance to ground ( Z 1) of the facility from the first response voltage ( U 1 (f 1)) and the first response current ( I 1 (f 1)) and to determine another impedance to ground ( Z 2) from the second response voltage ( U 2 (f 2)) and second response current ( I 2 (f 2)), to analyse impedances to ground of the facility, said analysing including comparing each determined impedance ( Z 1, Z 2) to ground with a predetermined value ( Z 0), and to determine a safety state of the disconnected electrical facility based on the analysed impedances to ground. • a signal injection unit arranged to inject a test signal (t 1) at a first main frequency (f 1) between a reference point of an electric circuit and ground and to inject another test signal (t 2) at a second main frequency (f 2) between a reference point of the electric circuit and ground, where the electric circuit is connected with the facility, • a signal conversion unit arranged to measure a first response voltage ( U 1 (f 1)) and a first response current ( I 1 (f 1)) in the electric circuit, where the first response voltage ( U 1 (f 1)) and the first response current ( I 1 (f 1)) result from the test signal (t 1), and to measure a second response voltage ( U 2 (f 2)) and a second response current ( I 2 (f 2)) as a result to the other test signal (t 2),and further characterized by • a processing device arranged to determine an impedance to ground ( Z 1) of the facility from the first response voltage ( U 1 (f 1)) and the first response current ( I 1 (f 1)) and to determine another impedance to ground ( Z 2) from the second response voltage ( U 2 (f 2)) and second response current ( I 2 (f 2)), to analyse impedances to ground of the facility, said analysing including comparing each determined impedance ( Z 1, Z 2) to ground with a predetermined value ( Z 0), and to determine a safety state of the disconnected electrical facility based on the analysed impedances to ground.
A flatbed knitting machine (1, 21, 41) equipped with movable sinkers (10, 30, 50), which are partly accommodated in accommodation parts (5c, 25c, 45c) formed to include a part of thin thickness parts (5b, 25b, 45b) having thicknesses smaller than thicknesses of needle plates (5, 25, 45) are aligned at a leading end side of a needle bed (3, 23, 43) facing a needle bed gap (2, 22, 42) in a state where the sinkers (11, 31, 51) are capable of rocking, each sinker (11, 31, 51) has a curved function arm (11b, 31b, 51b), on a leading end of which provided with a yarn receiving portion (11d, 31d, 51d) for pressing down a knitted fabric, extends into the needle bed gap (2, 22, 42), a support receive part (11a, 31a, 51a; 51g) which is provided at the needle bed (3, 23, 43) side and has a rocking support point (11f, 31f, 51f; 51h), and a passive arm (11c, 31c, 51c) which projects upward so as to be apart from a bottom part of the needle bed (3, 23, 43), is made into a closed state where the function arm (11b, 31 b, 51 b) is biased in a direction of advancing to the needle bed gap (2, 22, 42) by a torque spring (13, 33, 53), one end (13a, 33a, 53a) of which is bonded to the sinker (11, 31, 51) and the other end (13b, 33b, 53b) receives a suppressing pressure from a suppressing part (12d, 32d, 52d) provided on a sinker jack (12, 32, 52), when the sinker jack (12, 32, 52) is made to advance in a direction of making closer to the needle bed gap (2, 22, 42), and is made into an opened state where a leading edge part (12c, 32c, 52c), which is provided on the sinker jack (12, 32, 52) at a leading end side and projects in a direction toward the bottom part of the needle bed (3, 23, 43), acts on the passive arm (11c, 31c, 51c) to retreat so that the function arm (11b, 31b, 51b) rocks in a direction of retreating from the needle bed gap (2, 22, 42) when the sinker jack (12, 32, 52) is made to retreat in a direction of being apart from the needle bed gap (2, 22, 42), characterized in that the passive arm (11c, 31c, 51c) of the sinker (11, 31, 51) diverges from a portion between the support receive part (11a, 31a, 51a; 51g) and the function arm (11b, 31b, 51b), the suppressing part (12d, 32d, 52d) of the sinker jack (12, 32, 52) is provided at a position spaced from the leading edge part (12c, 32c, 52c), and suppresses the other end (13b, 33b, 53b) of the torque spring (13, 33, 53) in the closed state of the sinker (11, 31, 51), and does not suppress the other end (13b, 33b, 53b) of the torque spring (13, 33, 53) or suppresses it with a weakened force in the opened state of each sinker (11, 31, 51).
A tire comprising: a tread portion provided in the tread surface with a circumferentially continuously extending circumferential groove having a bottom and a pair of opposite side walls, wherein at least one of the side walls is provided with protrusions protruding into the circumferential groove and arranged in the tire circumferential direction, each of the protrusions has a gradually increasing part in which the area of the cross section of the protrusion being parallel with the tread surface is gradually increased toward the radially outer side of the tire, and the protrusions include a major protrusion having a radial length (L1a), and a minor protrusion whose radial length (L1b) is smaller than the radial length (L1a) of the major protrusion, characterized in that in the tire circumferential direction, two major protrusions alternate with one minor protrusion or one major protrusion alternates with two minor protrusions or one major protrusion alternates with one minor protrusion. a tread portion provided in the tread surface with a circumferentially continuously extending circumferential groove having a bottom and a pair of opposite side walls, wherein at least one of the side walls is provided with protrusions protruding into the circumferential groove and arranged in the tire circumferential direction, each of the protrusions has a gradually increasing part in which the area of the cross section of the protrusion being parallel with the tread surface is gradually increased toward the radially outer side of the tire, and the protrusions include a major protrusion having a radial length (L1a), and a minor protrusion whose radial length (L1b) is smaller than the radial length (L1a) of the major protrusion, characterized in that in the tire circumferential direction, two major protrusions alternate with one minor protrusion or one major protrusion alternates with two minor protrusions or one major protrusion alternates with one minor protrusion.
Roller shutter having a rotatable winding shaft, onto which a multiplicity of slats can be wound, wherein the winding shaft has secured on it, in a groove, at least one coupling piece, on which the slats are retained, wherein the groove, on one side, has a groove wall, which extends to a higher level, as seen in the radial direction of the winding shaft, than on the opposite side of the groove, characterized in that the coupling piece can be pivoted radially into the groove on the winding shaft, wherein the groove, on a first side, comprises a first mount, which is bounded by an inwardly directed protrusion, and, on the opposite side, has a second mount, which is bounded in the circumferential direction by a crosspiece, and the coupling piece, first of all, is pivoted radially into the second mount by way of one end and, then, the coupling piece is pivoted such that it engages in the first mount by way of a protrusion.
A method for managing user sessions in a networked computing environment, the method comprising: at an identity provider computer system, providing a first id token for an entity to a resource provider computer system, wherein the first id token includes an expiration indicator reflecting when the first id token expires, and the first id token further includes a first policy check interval defining how often the resource provider computer system is to communicate with the identity provider computer system to inquire about a conditional access policy that is to be implemented against the entity; at the identity provider computer system, due to expiration of the first policy check interval, receiving a first refresh token from the resource provider computer system; at the identity provider computer system, as a result of receiving the first refresh token from the resource provider computer system, evaluating conditional access policy for the entity; at the identity provider computer system, determining that the conditional access policy for the entity has been met; and as a result, providing a new id token and a new refresh token to the resource provider computer system. at an identity provider computer system, providing a first id token for an entity to a resource provider computer system, wherein the first id token includes an expiration indicator reflecting when the first id token expires, and the first id token further includes a first policy check interval defining how often the resource provider computer system is to communicate with the identity provider computer system to inquire about a conditional access policy that is to be implemented against the entity; at the identity provider computer system, due to expiration of the first policy check interval, receiving a first refresh token from the resource provider computer system; at the identity provider computer system, as a result of receiving the first refresh token from the resource provider computer system, evaluating conditional access policy for the entity; at the identity provider computer system, determining that the conditional access policy for the entity has been met; and as a result, providing a new id token and a new refresh token to the resource provider computer system.
A device for testing and monitoring digital circuits enabling the detection of timing faults affecting a signal D received directly at the input of a flip-flop called primary sampling element (100, 200), said primary sampling element supplying a first value D 1 of the signal D and receiving a first clock signal for its updating, said testing and monitoring device characterized in that it comprises at least: • a scan logic module introducing a latency in the signal D, said scan logic module having a first input receiving the signal "D", a second input receiving a "scan in" signal and a third input receiving a "scan enable" signal suitable for selecting the operating mode of the testing and monitoring device in a scan mode or an operational mode, an output linked to a secondary sampling element of the signal D and supplying a second sampled signal D 2 of the signal D after passing through the scan logic module, said secondary sampling element receiving a second clock signal for updating its state, • a module for comparison of the signal D 1 and the signal D 2 generating an alert or error signal. • a scan logic module introducing a latency in the signal D, said scan logic module having a first input receiving the signal "D", a second input receiving a "scan in" signal and a third input receiving a "scan enable" signal suitable for selecting the operating mode of the testing and monitoring device in a scan mode or an operational mode, an output linked to a secondary sampling element of the signal D and supplying a second sampled signal D 2 of the signal D after passing through the scan logic module, said secondary sampling element receiving a second clock signal for updating its state, • a module for comparison of the signal D 1 and the signal D 2 generating an alert or error signal.
A helmet comprising: a) a helmet body having a front and back side and a rounded top; b) an axial fan mounted on the back side of the helmet body, the axial fan having an inlet and an outlet; c) an air flow chamber having: i) an entrance attached to the outlet of the axial fan; ii) a main portion extending upward over the rounded top of the helmet body; and iii) an air curtain exit at the front side of the helmet body; and iv) an interior containing fins that divide the air flow chamber into separate channels, wherein the fins run from proximal to the entrance to proximal to the air curtain exit; wherein the fan generates an air curtain extending downward at the air curtain exit. a) a helmet body having a front and back side and a rounded top; b) an axial fan mounted on the back side of the helmet body, the axial fan having an inlet and an outlet; c) an air flow chamber having: i) an entrance attached to the outlet of the axial fan; ii) a main portion extending upward over the rounded top of the helmet body; and iii) an air curtain exit at the front side of the helmet body; and iv) an interior containing fins that divide the air flow chamber into separate channels, wherein the fins run from proximal to the entrance to proximal to the air curtain exit; wherein the fan generates an air curtain extending downward at the air curtain exit. i) an entrance attached to the outlet of the axial fan; ii) a main portion extending upward over the rounded top of the helmet body; and iii) an air curtain exit at the front side of the helmet body; and iv) an interior containing fins that divide the air flow chamber into separate channels, wherein the fins run from proximal to the entrance to proximal to the air curtain exit;
Top seal for a loading/unloading dock, the top seal configured for sealing the upper edge of a dock against a roof of a vehicle docked at the dock, the top seal comprising: - a movable sealing element that is configured for moving in a substantially vertical direction and comprises contact elements for contacting with the roof of the vehicle; - a drive (64, 80) configured for moving the movable sealing element; wherein the movable sealing element has a variable working height to adapt to a vehicle height, and wherein the contact elements of the movable sealing element comprises one or more water sealing elements, wherein the water sealing element comprises a water sealing strip (58, 60, 62), and is characterised in that the water sealing element has a V-shape or a curved shape configured to guide water sideways, wherein the legs of the V-shaped water sealing element extend over the roof of the vehicle sideways towards the dock. - a movable sealing element that is configured for moving in a substantially vertical direction and comprises contact elements for contacting with the roof of the vehicle; - a drive (64, 80) configured for moving the movable sealing element;
A cam angle sensor fault diagnosis apparatus for a straddled vehicle, the cam angle sensor fault diagnosis apparatus configured to detect a fault of a cam angle sensor, the cam angle sensor configured to detect a rotation angle of a camshaft provided in an engine of the straddled vehicle, the cam angle sensor fault diagnosis apparatus for the straddled vehicle comprising: a cam signal receiving unit connected to a signal output line through which a cam signal in accordance with the rotation angle is output by the cam angle sensor, the cam signal receiving unit being configured to receive a cam signal via the signal output line; a state determination unit configured to determine one or two fault states of the cam angle sensor from a disconnection state, a power supply fault state, and a ground fault state, distinguishably from the other fault states, in accordance with a signal level of the cam signal received by the cam signal receiving unit and in accordance with a holding period, in which the signal level is held; and a signal output unit configured to output a fault signal representing the one or two fault states determined by the state determination unit, in such a manner that the fault signal representing the one or two fault states is different from a fault signal representing the other fault states. a cam signal receiving unit connected to a signal output line through which a cam signal in accordance with the rotation angle is output by the cam angle sensor, the cam signal receiving unit being configured to receive a cam signal via the signal output line; a state determination unit configured to determine one or two fault states of the cam angle sensor from a disconnection state, a power supply fault state, and a ground fault state, distinguishably from the other fault states, in accordance with a signal level of the cam signal received by the cam signal receiving unit and in accordance with a holding period, in which the signal level is held; and a signal output unit configured to output a fault signal representing the one or two fault states determined by the state determination unit, in such a manner that the fault signal representing the one or two fault states is different from a fault signal representing the other fault states.