mhurhangee/ep-ind-claims huggingface dataset:
A method for discovering a security association formed between a first computing device (702-A) and a second computing device (702-B), comprising: obtaining by a third computing device from a fourth computing device a secret (x), wherein the secret (x) is the same secret generated by the first computing device (702-A) based on a seed provided to the first computing device (702-A) by the fourth computing device, wherein the first computing device (702-A) used the secret (x) to compute a session key (xyP) for use in securing communications with the second computing device (702-B), wherein the first computing device (702-A) computed the session key (xyP) on the basis of the secret (x) and a value (yP; b=G^y(modP)) received from the second computing device (702-B) during an authenticated key exchange between the first computing device (702-A) and the second computing device (702-B), the value (yP; b=G^y(modP)) computed by the second computing device (702-B) based on a second secret (y); intercepting by the third computing device communications between the first computing device (702-A) and the second computing device (702-B) unbeknownst to the first computing device (702-A) and the second computing device (702-B), wherein the intercepted communications include the authenticated key exchange between the first computing device (702-A) and the second computing device (702-B) and wherein the intercepting includes intercepting the value (yP; b=G^y(modP)); re-computing by the third computing device the session key (xyP) based on the secret (x) and the intercepted value (yP; b=G^y(modP)). obtaining by a third computing device from a fourth computing device a secret (x), wherein the secret (x) is the same secret generated by the first computing device (702-A) based on a seed provided to the first computing device (702-A) by the fourth computing device, wherein the first computing device (702-A) used the secret (x) to compute a session key (xyP) for use in securing communications with the second computing device (702-B), wherein the first computing device (702-A) computed the session key (xyP) on the basis of the secret (x) and a value (yP; b=G^y(modP)) received from the second computing device (702-B) during an authenticated key exchange between the first computing device (702-A) and the second computing device (702-B), the value (yP; b=G^y(modP)) computed by the second computing device (702-B) based on a second secret (y); intercepting by the third computing device communications between the first computing device (702-A) and the second computing device (702-B) unbeknownst to the first computing device (702-A) and the second computing device (702-B), wherein the intercepted communications include the authenticated key exchange between the first computing device (702-A) and the second computing device (702-B) and wherein the intercepting includes intercepting the value (yP; b=G^y(modP)); re-computing by the third computing device the session key (xyP) based on the secret (x) and the intercepted value (yP; b=G^y(modP)).
Apparatus for filling a product into a container (CONT) comprising: - a filling unit configured for delivering the product into the container, the filling unit comprising a pump (P1, P2) and furthermore a filling nozzle (FN1, FN2) at its one end; - a drive unit for moving the container in relation to the filling unit or vice versa back and forth between a first position, in which a bottom end of the container is arranged at a maximum distance from the filling nozzle, and a second position, in which the bottom end of the container is arranged at a minimum distance from the filling nozzle, and - a control unit configured to control delivery of the product through the filling nozzle and to control the drive unit, characterized in that the control unit is further configured to i) register an operational end position of the drive unit corresponding to said second position, ii) assign the registered operational position as a new initial position for the drive unit, and iii) calculate a new drive unit motion profile for controlling movement from said second position to said first position based on said new initial position, and wherein said control unit is further configured to initiate delivery of the product through the filling nozzle before the drive unit reaches said operational end position. - a filling unit configured for delivering the product into the container, the filling unit comprising a pump (P1, P2) and furthermore a filling nozzle (FN1, FN2) at its one end; - a drive unit for moving the container in relation to the filling unit or vice versa back and forth between a first position, in which a bottom end of the container is arranged at a maximum distance from the filling nozzle, and a second position, in which the bottom end of the container is arranged at a minimum distance from the filling nozzle, and - a control unit configured to control delivery of the product through the filling nozzle and to control the drive unit,
An electrical cable comprising: a conductor assembly having a first conductor, a second conductor, and an insulator structure surrounding the first conductor and the second conductor, the insulator structure having an outer surface (222, 322), the first and second conductors adapted to carry differential signals; and a cable shield wrapped around the conductor assembly and engaging the outer surface of the insulator structure, the cable shield having an inner edge and a flap covering the inner edge, the cable shield forming a void at the inner edge, the void being located closer to the first conductor than the second conductor, wherein the void has a volume creating a decrease in capacitance of the first conductor compared to the second conductor, characterized in that the first conductor has a first diameter and the second conductor has a second diameter, the first diameter being less than the second diameter, wherein the first diameter is selected to balance skew effects of the void on the first conductor compared to the second conductor along the length of the electrical cable, the diameter difference between the first diameter and the second diameter creating an increase in inductance in the first conductor compared to the second conductor, wherein the increase in inductance is proportional to the decrease in capacitance to balance the skew effects. a conductor assembly having a first conductor, a second conductor, and an insulator structure surrounding the first conductor and the second conductor, the insulator structure having an outer surface (222, 322), the first and second conductors adapted to carry differential signals; and a cable shield wrapped around the conductor assembly and engaging the outer surface of the insulator structure, the cable shield having an inner edge and a flap covering the inner edge, the cable shield forming a void at the inner edge, the void being located closer to the first conductor than the second conductor, wherein the void has a volume creating a decrease in capacitance of the first conductor compared to the second conductor, characterized in that the first conductor has a first diameter and the second conductor has a second diameter, the first diameter being less than the second diameter, wherein the first diameter is selected to balance skew effects of the void on the first conductor compared to the second conductor along the length of the electrical cable, the diameter difference between the first diameter and the second diameter creating an increase in inductance in the first conductor compared to the second conductor, wherein the increase in inductance is proportional to the decrease in capacitance to balance the skew effects.
A signal processor device comprising: first input means intended to be connected, via a measurement sensor, to a high-voltage signal of an electrical installation; and processor means for analyzing the signal measured by said sensor; the device being characterized in that it further comprises: • changeover means that are configured to cause the operation of the device to change between a test mode in which the device is disconnected from said high-voltage signal so as to be connected to a test signal, and an operating mode in which the device is disconnected from said test signal so as to be reconnected to said high-voltage signal; and • second input means that are connected to said processor means, said processor means being configured to actuate said changeover means so that the device operates in test mode or in operating mode depending on whether the second input means are activated or de-activated respectively. • changeover means that are configured to cause the operation of the device to change between a test mode in which the device is disconnected from said high-voltage signal so as to be connected to a test signal, and an operating mode in which the device is disconnected from said test signal so as to be reconnected to said high-voltage signal; and • second input means that are connected to said processor means, said processor means being configured to actuate said changeover means so that the device operates in test mode or in operating mode depending on whether the second input means are activated or de-activated respectively.
A method of forming a composite product with a skin having a surface effect, the method comprising: providing a substrate including a material having a substantially open-celled structure; providing a sheet-form curable material; providing a surface material in particulate form; and pressing the sheet-form curable material and the surface material to the substrate to form the composite product such that the sheet-form material becomes bonded to the substrate and the surface material becomes embedded in an exposed surface of the sheet-form material. providing a substrate including a material having a substantially open-celled structure; providing a sheet-form curable material; providing a surface material in particulate form; and pressing the sheet-form curable material and the surface material to the substrate to form the composite product such that the sheet-form material becomes bonded to the substrate and the surface material becomes embedded in an exposed surface of the sheet-form material.
An electric parking brake (100, 100A, 100B) for a utility vehicle, comprising: - a feed line for brake-pressure air; - a discharge line for brake-pressure air for a pneumatic brake device; - a first valve and a second valve that can each be switched between a stable state and an activated state in response to electrical control signals; and - a valve device that is connected between the feed line and the discharge line and has a control input, the valve device being designed to switch between a stable state and an activated state in response to control signals at the control input, the feed line being connected to the discharge line in the activated state, characterised in that the first valve connects the control input of the valve device to the discharge line in the stable state in order to maintain the prevailing state of the valve device when the brake-pressure air is applied to the discharge line, and connects the control input to the second valve in the activated state. - a feed line for brake-pressure air; - a discharge line for brake-pressure air for a pneumatic brake device; - a first valve and a second valve that can each be switched between a stable state and an activated state in response to electrical control signals; and - a valve device that is connected between the feed line and the discharge line and has a control input, the valve device being designed to switch between a stable state and an activated state in response to control signals at the control input, the feed line being connected to the discharge line in the activated state,
A cutting unit for cutting labels from a label film in labelling machines, comprising a rotary blade drum and a stationary blade assembly (3, 108), the said stationary blade assembly (3, 103) comprising a substantially U-shaped monolithic body (9, 109) having a movable portion (10, 110), a fixed portion (11, 111) facing said movable portion (10, 110) and linked thereto by a linking portion (12, 112) and whereby to define a U-shaped groove therebetween, wherein the movable portion (10, 110) of the monolithic body (9, 109) comprises an adjustable support (19, 119) for a blade (8, 108), protruding from the end of the movable portion (10, 110) that is proximal to the linking portion (12, 112) a projecting element (19', 119') defined by said adjustable support (19, 119), the said blade (8, 108) being connected to said projecting element (19', 119'), characterised in that the adjustable support (19, 119) is a separate element from the monolithic body (9, 109).
Method for connecting a first device (100, 106; 200; 300) belonging to a first mobile communications network of the narrow band type to a second mobile communications network (102; 202; 302) of the wide band type according to a second mobile communications standard, said device implementing a protocol layer for communicating with a first plurality of mobile terminals (204, 206) according to a first mobile communications standard, characterized in that the second mobile communications standard complies with the 3GPP EPS and LTE family and in that the method comprises a modification of said first device by integration of a transposition layer which implements a standardized 3GPP S1 interface for the Control Plane of the 3GPP EPS and LTE standards in said protocol layer and is linked to said second communications network of the wide band type via a link of the Internet Protocol type.
A microfluidic collection system for drawing blood from a subject comprising: a. a collector comprising: i. a housing including a lumen; ii. an actuator configured to be inserted into the lumen at the proximal end of the housing to be movable relative to the housing; iii. a skin puncture device operably coupled to the actuator, wherein movement of the actuator toward skin of the subject is configured to move the skin puncture device toward the skin; iv. at least one collection site in fluid communication with the lumen, wherein the skin puncture device is configured to extend through the at least one collection site; v. a microfluidic network disposed within the housing and further comprising at least one microfluidic channel; and vi. at least one outflow channel configured to be in fluid communication with the microfluidic network, and characterized in that: the at least one microfluidic channel is an open channel having (a) a wettable surface and (b) a free perimeter portion along a length of the wettable surface; and b. at least one reservoir (104, 108) configured to be in fluid communication with the at least one outflow channel. a. a collector comprising: i. a housing including a lumen; ii. an actuator configured to be inserted into the lumen at the proximal end of the housing to be movable relative to the housing; iii. a skin puncture device operably coupled to the actuator, wherein movement of the actuator toward skin of the subject is configured to move the skin puncture device toward the skin; iv. at least one collection site in fluid communication with the lumen, wherein the skin puncture device is configured to extend through the at least one collection site; v. a microfluidic network disposed within the housing and further comprising at least one microfluidic channel; and vi. at least one outflow channel configured to be in fluid communication with the microfluidic network, and characterized in that: the at least one microfluidic channel is an open channel having (a) a wettable surface and (b) a free perimeter portion along a length of the wettable surface; and i. a housing including a lumen; ii. an actuator configured to be inserted into the lumen at the proximal end of the housing to be movable relative to the housing; iii. a skin puncture device operably coupled to the actuator, wherein movement of the actuator toward skin of the subject is configured to move the skin puncture device toward the skin; iv. at least one collection site in fluid communication with the lumen, wherein the skin puncture device is configured to extend through the at least one collection site; v. a microfluidic network disposed within the housing and further comprising at least one microfluidic channel; and vi. at least one outflow channel configured to be in fluid communication with the microfluidic network, and characterized in that: the at least one microfluidic channel is an open channel having (a) a wettable surface and (b) a free perimeter portion along a length of the wettable surface; and b. at least one reservoir (104, 108) configured to be in fluid communication with the at least one outflow channel.
A method for determining engine operation parameter values during and/or after a gear shift operation (A, B, C, D) prior to performing said gear shift operation, characterized by the steps of, prior to the gear shift operation: - determining initial conditions comprising torque demand and engine speed and certain other engine operation parameter values; - providing said initial conditions to an engine operation simulation model; - providing a torque development course as well as an engine speed development course during the intended gear shift operation to said engine operation simulation model; and - determining desired engine operation parameter values by means of said engine operation simulation model based upon the information thus provided to said engine operation simulation model. - determining initial conditions comprising torque demand and engine speed and certain other engine operation parameter values; - providing said initial conditions to an engine operation simulation model; - providing a torque development course as well as an engine speed development course during the intended gear shift operation to said engine operation simulation model; and - determining desired engine operation parameter values by means of said engine operation simulation model based upon the information thus provided to said engine operation simulation model.
A method for manufacturing an array antenna comprising: - a design phase, comprising synthesizing an array layout of said array antenna and choosing or designing radiating elements to be arranged according to said array layout; and - a phase of physically making said array antenna, comprising arranging said radiating elements according to said array layout; wherein said design phase comprises the step of: a) synthesizing an array layout complying with a required minimum beamwidth, a required field of view, a required side lobe level and a target angular dependence of the maximum directivity of the array antenna over said required field of view; characterized in that said design phase further comprises: b) determining shaped radiation patterns of said radiating elements in order to approximate said target angular dependence of the maximum directivity of the array antenna over said required field of view; and c) choosing or designing radiating elements having the shaped radiation patterns determined at said step b). - a design phase, comprising synthesizing an array layout of said array antenna and choosing or designing radiating elements to be arranged according to said array layout; and - a phase of physically making said array antenna, comprising arranging said radiating elements according to said array layout; a) synthesizing an array layout complying with a required minimum beamwidth, a required field of view, a required side lobe level and a target angular dependence of the maximum directivity of the array antenna over said required field of view; b) determining shaped radiation patterns of said radiating elements in order to approximate said target angular dependence of the maximum directivity of the array antenna over said required field of view; and c) choosing or designing radiating elements having the shaped radiation patterns determined at said step b).
A dye-sensitized solar cell module comprising: (a) a pair of mutually opposed electrodes; (b) partitions that connect the pair of electrodes and form a plurality of cell spaces together with the pair of electrodes; and (c) an electrolyte to be filled into the cell spaces, wherein among the pair of electrodes (i) one electrode has oxide semiconductor portions that face the plurality of cell spaces respectively and are loaded with a photosensitizing dye, and (ii) at least one electrode - is composed of at least two layers, the thickest layer being a metal substrate having a thickness of ≤ 40 μm, and - has a bending portion that bends so as to protrude towards the opposing electrode. (a) a pair of mutually opposed electrodes; (b) partitions that connect the pair of electrodes and form a plurality of cell spaces together with the pair of electrodes; and (c) an electrolyte to be filled into the cell spaces, (i) one electrode has oxide semiconductor portions that face the plurality of cell spaces respectively and are loaded with a photosensitizing dye, and (ii) at least one electrode - is composed of at least two layers, the thickest layer being a metal substrate having a thickness of ≤ 40 μm, and - has a bending portion that bends so as to protrude towards the opposing electrode. - is composed of at least two layers, the thickest layer being a metal substrate having a thickness of ≤ 40 μm, and - has a bending portion that bends so as to protrude towards the opposing electrode.
Fluid-cushion sealing device for a piston capable of moving in longitudinal translation in a cylinder and in the same axis as the latter, said piston and said cylinder defining, with at least one cylinder head, a chamber to be sealed characterized in that it includes: • Said piston or said cylinder, this one including at least one ring groove; • at least one continuous perforated ring which comprises an internal cylindrical ring surface, an external cylindrical ring surface and two axial ring surfaces, said ring being accommodated in said ring groove provided in said piston or in said cylinder, while said ring is capable of moving radially in said ring groove without being able to leave the latter, said ring being sufficiently flexible to allow its diameter to increase or decrease relative to that of said groove under pressure of a pressurized fluid source; • ring sealing means that produce a seal between each axial ring surface and the ring groove, so that the latter defines, with the continuous perforated ring, a pressure distribution chamber connected by a transfer circuit to a pressurized fluid source; • at least one calibrated opening which passes right through the continuous perforated ring in its radial thickness; • at least one fluid-cushion carrying surface which the continuous perforated ring comprises, said carrying surface being arranged on the opposite side from the pressure distribution chamber. • Said piston or said cylinder, this one including at least one ring groove; • at least one continuous perforated ring which comprises an internal cylindrical ring surface, an external cylindrical ring surface and two axial ring surfaces, said ring being accommodated in said ring groove provided in said piston or in said cylinder, while said ring is capable of moving radially in said ring groove without being able to leave the latter, said ring being sufficiently flexible to allow its diameter to increase or decrease relative to that of said groove under pressure of a pressurized fluid source; • ring sealing means that produce a seal between each axial ring surface and the ring groove, so that the latter defines, with the continuous perforated ring, a pressure distribution chamber connected by a transfer circuit to a pressurized fluid source; • at least one calibrated opening which passes right through the continuous perforated ring in its radial thickness; • at least one fluid-cushion carrying surface which the continuous perforated ring comprises, said carrying surface being arranged on the opposite side from the pressure distribution chamber.