mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for conveying long pasta between at least one production station and at least one weighing and packaging station, comprising at least one rectilinear belt conveyor and at least one curved belt conveyor, the long pasta being arranged directly onto belts (61, 71) orthogonally with respect to the advancing direction, the rectilinear belt conveyor comprises a belt able to overlap a belt of a curved belt conveyor in a transfer area of the long pasta between said rectilinear belt conveyor and said curved belt conveyor, wherein said belt conveyors (6, 7) comprise main rollers (62, 72) and end rollers (63, 73), the diameter of said end rollers (63, 73) being smaller than the diameter of the main rollers (62, 72), and wherein, considering the direction of movement of the long pasta, from the rectilinear belt conveyor to the curved belt conveyor, the center of the end roller of the belt of the rectilinear belt conveyor is ahead the center of the end roller of the belt of the curved belt conveyor. the rectilinear belt conveyor comprises a belt able to overlap a belt of a curved belt conveyor in a transfer area of the long pasta between said rectilinear belt conveyor and said curved belt conveyor, wherein said belt conveyors (6, 7) comprise main rollers (62, 72) and end rollers (63, 73), the diameter of said end rollers (63, 73) being smaller than the diameter of the main rollers (62, 72), and wherein, considering the direction of movement of the long pasta, from the rectilinear belt conveyor to the curved belt conveyor, the center of the end roller of the belt of the rectilinear belt conveyor is ahead the center of the end roller of the belt of the curved belt conveyor.
An inspection assembly comprising a means for recording and a at least partially transparent single-dose casing of the envelope type, in which there is arranged a substantially transparent container containing a substantially transparent liquid, and the assembly comprises a substantially point-like light source and a diffusive screen (4, 14), the container is lens shaped and is provided between the light source and the diffusive screen (4, 14) in order to project onto the screen a profile of luminous intensity that is recorded by the means for recording the luminous intensity, and the envelope type casing comprises two adjoining films, between which the container is enclosed, a first of those films which is directed towards the substantially point-like light source being transparent, the second of those films being diffusive and semi-transparent in order to define the diffusive screen in the envelope type casing.
A panel for an electronic device, with a front side, and a back side, the panel comprising a sign, suitable to be viewed from the panel's front side, wherein the sign has a an annular shape, wherein the sign has 3 indicia means (4,5,6) able to emit light, each being an annular segment of the annular shape, each with an angular length (β), characterized in that each two adjacent indicia means (4,5,6) are spaced by an angular gap alpha, and wherein 0°<= alpha <= 20 °.
A method for observing the elution of a compound from a biocompatible matrix adapted for use as part of a drug eluting medical device into an aqueous medium, the method comprising exposing a matrix comprising the compound to a medium, wherein the medium comprises: 20-40% of an alkanol having 1-8 carbon atoms; 0.2-6.0% of a matrix swelling agent; and assaying the medium for the presence of the compound so as to observe the elution of the compound from the matrix into the medium. 20-40% of an alkanol having 1-8 carbon atoms; 0.2-6.0% of a matrix swelling agent; and assaying the medium for the presence of the compound so as to observe the elution of the compound from the matrix into the medium.
A cell stack device comprising: a cell stack in which a plurality of cells, each including a fuel electrode, a solid electrolyte layer and an air electrode, is laminated; and a fixing member that fixes the plurality of cells, wherein the fixing member includes: a support member that supports the plurality of cells; and a fixing part arranged between the support member and the plurality of cells; and in a cross section including the support member, the fixing part, and at least one of the plurality of cells, the fixing part includes: a first region (7a1) arranged close to the support member; a second region (7a2) arranged closer to the at least one cell than the first region (7a1); and a third region (7a3) arranged between the first region (7a1) and the second region (7a2), and at least one of the first region (7a1) and the second region (7a2) includes a porous region (7a4) having a porosity that is higher than a porosity of the third region (7a3). a cell stack in which a plurality of cells, each including a fuel electrode, a solid electrolyte layer and an air electrode, is laminated; and a fixing member that fixes the plurality of cells, wherein the fixing member includes: a support member that supports the plurality of cells; and a fixing part arranged between the support member and the plurality of cells; and a support member that supports the plurality of cells; and a fixing part arranged between the support member and the plurality of cells; and in a cross section including the support member, the fixing part, and at least one of the plurality of cells, the fixing part includes: a first region (7a1) arranged close to the support member; a second region (7a2) arranged closer to the at least one cell than the first region (7a1); and a third region (7a3) arranged between the first region (7a1) and the second region (7a2), and a first region (7a1) arranged close to the support member; a second region (7a2) arranged closer to the at least one cell than the first region (7a1); and a third region (7a3) arranged between the first region (7a1) and the second region (7a2), and at least one of the first region (7a1) and the second region (7a2) includes a porous region (7a4) having a porosity that is higher than a porosity of the third region (7a3).
A method for univalent and unequivocal extraction of keys from a propagation channel (EUC_CP), said keys being intended to protect data exchanged between a first user A and a second user B, a user comprising one or more emitters (16e, 26e) and one or more receivers (26e, 26r), the data being transmitted via the propagation channel, characterized in that it comprises at least the following steps: a) measuring, by the receiver or receivers (16r, 26r) of the first and of the second user A, B, signals S coming from each emitter (16e, 26e) of the other user, measuring the parameters of the corresponding propagation channel, and then estimating the corresponding complex impulse responses of the propagation channel or corresponding complex frequency responses of the propagation channel, b) selecting, in a univalent manner, for each user A, B, a set of complex channel coefficients resulting from the estimations of the complex impulse responses of the propagation channel or of the complex frequency responses of the propagation channel, and retaining the coefficients that exhibit a cross-correlation lower than an adjustable predetermined threshold value, c) quantifying and formatting, for each user, the selected complex channel coefficients by applying a geometrical mesh of the complex plane in which the channel coefficients take their value, numbering the complex coefficients according to the mesh to which they belong, and error correction techniques to said numbering, d) using, in a univalent and unequivocal manner, for each user, digital data resulting from said quantification and from said formatting in the form of secret keys so as to encrypt the string of transmitted data. a) measuring, by the receiver or receivers (16r, 26r) of the first and of the second user A, B, signals S coming from each emitter (16e, 26e) of the other user, measuring the parameters of the corresponding propagation channel, and then estimating the corresponding complex impulse responses of the propagation channel or corresponding complex frequency responses of the propagation channel, b) selecting, in a univalent manner, for each user A, B, a set of complex channel coefficients resulting from the estimations of the complex impulse responses of the propagation channel or of the complex frequency responses of the propagation channel, and retaining the coefficients that exhibit a cross-correlation lower than an adjustable predetermined threshold value, c) quantifying and formatting, for each user, the selected complex channel coefficients by applying a geometrical mesh of the complex plane in which the channel coefficients take their value, numbering the complex coefficients according to the mesh to which they belong, and error correction techniques to said numbering, d) using, in a univalent and unequivocal manner, for each user, digital data resulting from said quantification and from said formatting in the form of secret keys so as to encrypt the string of transmitted data.
A method of extending a Bluetooth wireless Personal Area Network, PAN, the method comprising the acts of: establishing a first Bluetooth wireless PAN comprising a first PAN-enabled device (120, 130, 140) and a first PAN-enabled conferencing unit; establishing a conferencing connection between the first PAN-enabled conferencing unit and a second PAN-enabled conferencing unit, wherein the second PAN-enabled conferencing unit is at a location remote from the first PAN-enabled conferencing unit; establishing a second Bluetooth wireless PAN comprising a second PAN-enabled device (170, 180) and the second PAN-enabled conferencing unit; further comprising: linking the first wireless PAN to the second wireless PAN via the conferencing connection such that the first PAN-enabled device (120, 130, 140) and the second PAN-enabled device (170, 180) are comprised within the same virtual PAN; wherein the first PAN-enabled conferencing unit comprises a network interface for establishing the conferencing connection and a Bluetooth host controller interface layer, wherein the network interface is linked to the host controller interface layer via a channel for sending and receiving Bluetooth data. establishing a first Bluetooth wireless PAN comprising a first PAN-enabled device (120, 130, 140) and a first PAN-enabled conferencing unit; establishing a conferencing connection between the first PAN-enabled conferencing unit and a second PAN-enabled conferencing unit, wherein the second PAN-enabled conferencing unit is at a location remote from the first PAN-enabled conferencing unit; establishing a second Bluetooth wireless PAN comprising a second PAN-enabled device (170, 180) and the second PAN-enabled conferencing unit; further comprising: linking the first wireless PAN to the second wireless PAN via the conferencing connection such that the first PAN-enabled device (120, 130, 140) and the second PAN-enabled device (170, 180) are comprised within the same virtual PAN; wherein the first PAN-enabled conferencing unit comprises a network interface for establishing the conferencing connection and a Bluetooth host controller interface layer, wherein the network interface is linked to the host controller interface layer via a channel for sending and receiving Bluetooth data. linking the first wireless PAN to the second wireless PAN via the conferencing connection such that the first PAN-enabled device (120, 130, 140) and the second PAN-enabled device (170, 180) are comprised within the same virtual PAN; wherein the first PAN-enabled conferencing unit comprises a network interface for establishing the conferencing connection and a Bluetooth host controller interface layer, wherein the network interface is linked to the host controller interface layer via a channel for sending and receiving Bluetooth data.
A method for producing a stack of layers on a semiconductor substrate, the method comprising the steps of: • Providing a substrate, • producing on said substrate a first metal layer, or a first metal layer covered by an oxide of said metal, • By atomic layer deposition, depositing on said first metal layer or on said oxide a protection layer of TiO 2, wherein H 2 O is used as the oxidant during the ALD deposition, • By atomic layer deposition, depositing on said TiO 2 layer, a layer of a dielectric material, wherein O 3 is used as the oxidant during the ALD deposition, to thereby obtain a stack of a TiO 2 layer and a second dielectric layer, • Depositing a second metal layer on said dielectric material layer, characterized in that said protection TiO 2 layer has a thickness lower than 1nm, and wherein: • the first metal layer consists of or comprises on its top surface a Ru layer or a Ru layer covered by ruthenium oxide, • the second dielectric layer is a layer of TiO 2 in rutile phase. • Providing a substrate, • producing on said substrate a first metal layer, or a first metal layer covered by an oxide of said metal, • By atomic layer deposition, depositing on said first metal layer or on said oxide a protection layer of TiO 2, wherein H 2 O is used as the oxidant during the ALD deposition, • By atomic layer deposition, depositing on said TiO 2 layer, a layer of a dielectric material, wherein O 3 is used as the oxidant during the ALD deposition, to thereby obtain a stack of a TiO 2 layer and a second dielectric layer, • Depositing a second metal layer on said dielectric material layer, • the first metal layer consists of or comprises on its top surface a Ru layer or a Ru layer covered by ruthenium oxide, • the second dielectric layer is a layer of TiO 2 in rutile phase.
An energy curable lithographic printing ink or coating comprising a polyester resin having a linear structure and a number average molecular weight less than 20,000, said polyester resin comprising: a di-epoxide monomer; and a di-acid monomer.
Display system for a vehicle, with which the surroundings of the vehicle can be displayed, having at least one camera for capturing an image of the surroundings, wherein the camera is a rear view camera and is arranged in such a way that an image of the surroundings to the rear of the vehicle can be captured by means of the camera, and having a display unit on which the image can be at least partially displayed, the display system has a processing unit which is configured to display the image in a laterally reversed fashion, characterized in that the processing unit is also configured to detect an information region automatically and to process at least partially the image which is to be displayed on the display unit in such a way that the information region to display in the rest of an image on the display unit in a view which is mirror-inverted with respect to the rest of the image, wherein the information region contains at least one character which, in the view which is mirror-inverted with respect to the rest of the image which is to be displayed on the display unit, contains information which can be perceived better, or can be perceived at all, by the driver.
Refractor comprising: - an enclosure comprising a front face containing a first optical window and a back face containing a second optical window aligned with the first optical window along an optical axis of observation; - at least one vision compensating device (10; 200) making it possible to observe along the optical axis of observation; - the vision compensating device (10; 200) comprises, between the first window and the second window, a first optical element having a spherical power along the variable optical axis; and in that - the enclosure is mounted on an orientable holder that is rotatable relative to a stationary portion about a horizontal axis; characterized in that the refractor comprises at least one image capturing device (168; 169) having a line of sight, in which the image capturing device (168; 169) is mounted in the refractor so that the line of sight is essentially parallel to said horizontal axis, this allowing the location of the eye relative to the vision compensating device to be monitored without interruption. - an enclosure comprising a front face containing a first optical window and a back face containing a second optical window aligned with the first optical window along an optical axis of observation; - at least one vision compensating device (10; 200) making it possible to observe along the optical axis of observation; - the vision compensating device (10; 200) comprises, between the first window and the second window, a first optical element having a spherical power along the variable optical axis; and in that - the enclosure is mounted on an orientable holder that is rotatable relative to a stationary portion about a horizontal axis;
Method of determining an ion energy for plasma processing of a dielectric substrate, comprising: exposing the dielectric substrate to a plasma discharge, applying a pulsed voltage waveform generated by a power supply to the dielectric substrate, wherein the pulsed voltage waveform comprises a sequence of pulses, each pulse comprising a higher voltage interval and a lower voltage interval, wherein the lower voltage interval comprises a voltage slope, characterised in that the method comprises: generating first pulses of the sequence having differing voltage slopes between one another and applying the first pulses to the dielectric substrate, for each one of the first pulses, determining the voltage slope and an output current ( I P) corresponding to the voltage slope at an output of the power supply, for each one of the first pulses, determining at least one coefficient (k, b) of a mathematical relation between the voltage slope and the corresponding output current based solely on the voltage slope and the output current determined for one or more of the first pulses, applying a test function to the at least one coefficient and selecting an optimal voltage slope value corresponding to the at least one coefficient making the test function true. exposing the dielectric substrate to a plasma discharge, applying a pulsed voltage waveform generated by a power supply to the dielectric substrate, wherein the pulsed voltage waveform comprises a sequence of pulses, each pulse comprising a higher voltage interval and a lower voltage interval, wherein the lower voltage interval comprises a voltage slope, generating first pulses of the sequence having differing voltage slopes between one another and applying the first pulses to the dielectric substrate, for each one of the first pulses, determining the voltage slope and an output current ( I P) corresponding to the voltage slope at an output of the power supply, for each one of the first pulses, determining at least one coefficient (k, b) of a mathematical relation between the voltage slope and the corresponding output current based solely on the voltage slope and the output current determined for one or more of the first pulses, applying a test function to the at least one coefficient and selecting an optimal voltage slope value corresponding to the at least one coefficient making the test function true.
A multi-sensor device for a medical apparatus in which at least one first sensor unit (8, 9) and at least one n-th sensor unit are arranged at a fluid-guiding line connection along which the sensor units (8, 9, 10) detect at least one variable from a flowing fluid in predetermined proximity to each other, a maximum distance between the first sensor unit (8, 9) and the n-th sensor unit is determined by a predetermined maximum time delay between the detection of a first signal change of a first signal of the first sensor unit (8, 9) and the detection of a signal change of an n-th signal of the n-th sensor unit, wherein said signal change corresponds to the first signal change at a predetermined flow rate through the fluid-guiding line connection, and the proximity of the first sensor unit (8, 9) and of the n-th sensor unit is predetermined in such manner that, at the predetermined flow rate, in the first signal of the first sensor unit (8, 9) and in the n-th signal of the n-th sensor unit, respectively corresponding signal changes are occurring practically free from time shifts when both signals are simultaneously detected in parallel within the predetermined maximum time delay, characterized in that the predetermined maximum time delay is 1 and the predetermined flow rate lies between 100 ml/min and 800 ml/min
Charging apparatus for charging an electric vehicle at a charging station having a first charging module on the charging station side and a second charging module on the vehicle side which have electrical contact elements (3, 4) that can be connected to each other, for which purpose the charging apparatus has an automatic feeding facility on the charging station side, the actuation of which results in the electrical contact elements of the charging module on the charging station side being connectable to the electrical contact elements of the charging module on the vehicle side, and whereby the charging apparatus on the charging station side has an automatic positioning device for attaching the first charging module to the second charging module, characterised in that the contact elements (3, 4) of the first and the second charging modules (1, 2) can be attached to each other without overcoming any contact force, that a first contact element has a contact pin and a guide sleeve that can move against the contact pin in an actuating manner, that a second contact element has two contact plates coupled to a spring element whose distance to each other is variable against the force of the spring element, and that the position of the guide sleeve in relation to the second contact element can influence the position of the spring element determining the contact force.
Tray closing machine, comprising a sealing device, a gripper system, a collecting conveyor, and a carrier supply which is operable at a constant feed rate and used for transporting trays, characterized in that a group of n trays can be transferred from the carrier supply to the collecting conveyor, and that the group of n trays can be taken over by the gripper system from the collecting conveyor to supply said group to the sealing device, that a gap with at least a length of 2 times a carrier distance minus a tray width is provided on the carrier supply between two successive groups of n trays, and that a control is provided that includes a switching between a continuous operation and an intermittent operation of the carrier supply.
Mobile crushing system comprising a chassis, as well as a receiving bin (5a, 5b), a crusher and an apron conveyor arranged on a supporting structure for conveying the material to be crushed from the receiving bin (5a, 5b) to the crusher, wherein the receiving bin (5a, 5b) is attached at connection points on the supporting structure, wherein the apron conveyor extends beyond a base of the receiving bin in a direction opposite to the conveying direction with a section designed to receive the material to be crushed, characterised in that the supporting structure has free connection points, wherein the receiving bin (5a, 5b) is attached to the supporting structure with a detachable form-fit and/or force-fit connection such that the receiving bin (5a, 5b) can be removed from the apron conveyor along specified separation surfaces.