mhurhangee/patent-ind-claim-en huggingface dataset:
Heat exchanger , in particular with indirect contact, preferably on the surface, for discharge containers of solenoid valves of machines for coffee dispensing, the heat exchanger comprising a body configured to be placed inside a discharge container of at least one solenoid valve of a machine for coffee dispensing, the body comprising: a first portion externally presenting a collection cavity of a hot waste fluid (F1) coming from the solenoid valve of the machine for coffee dispensing, the collection cavity defining a first surface of the first portion , arranged to come into contact with the hot waste fluid (F1) of the solenoid valve and a second surface facing the opposite side from the first surface ; a second portion presenting a primary surface in contact with the second surface of the first portion and a secondary surface opposed to the primary surface , the secondary surface of the second portion of the body being arranged to come into contact with a heat exchange fluid (F2) of the machine for coffee dispensing having a different temperature from the temperature of the hot waste fluid (F1) of the solenoid valve of the machine , the first and second portion of the body of the heat exchanger allowing an exchange of heat, by conduction, between the hot waste fluid (F1) of the solenoid valve in contact with the first surface of the first portion of the body and the heat exchange fluid (F2) of the machine for coffee dispensing in contact with the secondary surface of the second portion of the body of the heat exchanger . a first portion externally presenting a collection cavity of a hot waste fluid (F1) coming from the solenoid valve of the machine for coffee dispensing, the collection cavity defining a first surface of the first portion , arranged to come into contact with the hot waste fluid (F1) of the solenoid valve and a second surface facing the opposite side from the first surface ; a second portion presenting a primary surface in contact with the second surface of the first portion and a secondary surface opposed to the primary surface , the secondary surface of the second portion of the body being arranged to come into contact with a heat exchange fluid (F2) of the machine for coffee dispensing having a different temperature from the temperature of the hot waste fluid (F1) of the solenoid valve of the machine , the first and second portion of the body of the heat exchanger allowing an exchange of heat, by conduction, between the hot waste fluid (F1) of the solenoid valve in contact with the first surface of the first portion of the body and the heat exchange fluid (F2) of the machine for coffee dispensing in contact with the secondary surface of the second portion of the body of the heat exchanger .
Heterophasic propylene copolymer (HECO) comprising a) a propylene homopolymer (HPP) having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 200 to 350 g/10 min, and b) an elastomeric propylene-ethylene copolymer (E), wherein the heterophasic propylene copolymer (HECO) (i) has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 15 to 35 g/10 min, (ii) comprises a xylene cold soluble (XCS) fraction in an amount from 34 to 40 wt.-%, based on the total weight of the heterophasic propylene copolymer (HECO), wherein further the xylene cold soluble (XCS) fraction of the heterophasic propylene copolymer (HECO) has (iii) an intrinsic viscosity (IV) in the range of 2.8 to 3.8 dl/g measured according to DIN ISO 1628/1, and (iv) an ethylene content (EC) of 25 to 35 wt.-%, based on the total weight of the xylene cold soluble (XCS) fraction of the heterophasic propylene copolymer (HECO). a) a propylene homopolymer (HPP) having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 200 to 350 g/10 min, and b) an elastomeric propylene-ethylene copolymer (E), (i) has a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 15 to 35 g/10 min, (ii) comprises a xylene cold soluble (XCS) fraction in an amount from 34 to 40 wt.-%, based on the total weight of the heterophasic propylene copolymer (HECO), wherein further the xylene cold soluble (XCS) fraction of the heterophasic propylene copolymer (HECO) has (iii) an intrinsic viscosity (IV) in the range of 2.8 to 3.8 dl/g measured according to DIN ISO 1628/1, and (iv) an ethylene content (EC) of 25 to 35 wt.-%, based on the total weight of the xylene cold soluble (XCS) fraction of the heterophasic propylene copolymer (HECO).
Electric motor of a motor vehicle , in particular an auxiliary unit , comprising a stator having a stator winding and also comprising a rotor as well as comprising a switching unit and comprising a contact adapter for an electrical motor connection, - wherein the stator and the rotor - are arranged concentrically to a motor axis in a motor housing which is closed by an end plate arranged perpendicularly to the motor axis , - wherein the switching unit is mounted on the stator and electrically contact-connected to the stator winding , - wherein the contact adapter is attached to the switching unit and electrically contact-connected to it, and - wherein a plug connection of the contact adapter is arranged in an opening in the end plate , and - wherein the plug connection is mounted in a floating manner on the switching unit . - wherein the stator and the rotor - are arranged concentrically to a motor axis in a motor housing which is closed by an end plate arranged perpendicularly to the motor axis , - wherein the switching unit is mounted on the stator and electrically contact-connected to the stator winding , - wherein the contact adapter is attached to the switching unit and electrically contact-connected to it, and - wherein a plug connection of the contact adapter is arranged in an opening in the end plate , and - wherein the plug connection is mounted in a floating manner on the switching unit .
A polypeptide having xylanase activity and comprising an amino acid sequence, said amino acid sequence having at least 75% identity with SEQ ID No. 3 and which polypeptide has an amino acid substitution to alanine in position 110, wherein said position 110 is determined as the position corresponding to position 110 of B . subtilis xylanase sequence shown as SEQ ID No. 1 by alignment, and wherein the variant xylanase has an improved bran solubilisation activity higher than what may be obtained by use of the corresponding wild-type xylanase of SEQ ID No. 3.
A method comprising: receiving , from a pseudo-random number generator (PRNG) dependent cryptographic module that comprises a pseudo-random number generator (PRNG) configured to generate random numbers using a seed based on received entropy, a request for entropy for reseeding the PRNG-dependent cryptographic module; and generating , with a random number generator and based on an entropy source, the entropy for reseeding the PRNG-dependent cryptographic module; and characterized by further comprising: operating , while generating the entropy for reseeding the PRNG-dependent cryptographic module, the PRNG-dependent cryptographic module to overlap at least a portion of power consumption associated with operating the PRNG-dependent cryptographic module with power consumption associated with the generating of the entropy for reseeding the PRNG-dependent cryptographic module. receiving , from a pseudo-random number generator (PRNG) dependent cryptographic module that comprises a pseudo-random number generator (PRNG) configured to generate random numbers using a seed based on received entropy, a request for entropy for reseeding the PRNG-dependent cryptographic module; and generating , with a random number generator and based on an entropy source, the entropy for reseeding the PRNG-dependent cryptographic module; and characterized by further comprising: operating , while generating the entropy for reseeding the PRNG-dependent cryptographic module, the PRNG-dependent cryptographic module to overlap at least a portion of power consumption associated with operating the PRNG-dependent cryptographic module with power consumption associated with the generating of the entropy for reseeding the PRNG-dependent cryptographic module.
A detection apparatus for placement on an investigation zone of an epidermis of a human or animal subject for detecting at least the nitric oxide dissolved in sweat, said detection apparatus comprising: a structure defining a microfluidic circuit , the structure comprising an entry orifice allowing passage of sweat from the epidermis, the microfluidic circuit comprising at least one microfluidic channel for guiding a flow of sweat , the microfluidic channel being in communication with the entry orifice , at least one electrochemical sensor configured to produce at least one signal that is representative of a concentration of the nitric oxide dissolved in the flow of sweat in the microfluidic channel , characterized in that the electrochemical sensor comprises at least four electrodes disposed successively in a longitudinal direction of the microfluidic channel , the at least four electrodes comprising a reference electrode , at least two working electrodes and a counter-electrode , and in that the electrochemical sensor is further configured to perform at least one additional operation from among the following: depleting a chemical species in the flow of sweat in the microfluidic channel , said chemical species having an oxidation potential lower than the oxidation potential of nitric oxide, and producing a signal that is representative of a flow rate of the flow of sweat in the microfluidic channel . a structure defining a microfluidic circuit , the structure comprising an entry orifice allowing passage of sweat from the epidermis, the microfluidic circuit comprising at least one microfluidic channel for guiding a flow of sweat , the microfluidic channel being in communication with the entry orifice , at least one electrochemical sensor configured to produce at least one signal that is representative of a concentration of the nitric oxide dissolved in the flow of sweat in the microfluidic channel , characterized in that the electrochemical sensor comprises at least four electrodes disposed successively in a longitudinal direction of the microfluidic channel , the at least four electrodes comprising a reference electrode , at least two working electrodes and a counter-electrode , and in that the electrochemical sensor is further configured to perform at least one additional operation from among the following: depleting a chemical species in the flow of sweat in the microfluidic channel , said chemical species having an oxidation potential lower than the oxidation potential of nitric oxide, and producing a signal that is representative of a flow rate of the flow of sweat in the microfluidic channel . depleting a chemical species in the flow of sweat in the microfluidic channel , said chemical species having an oxidation potential lower than the oxidation potential of nitric oxide, and producing a signal that is representative of a flow rate of the flow of sweat in the microfluidic channel .
A method for triggering a predetermined operation, comprising: receiving, by a control device, a message sent via a wireless signal field by a predetermined signal source and carrying device identification of the predetermined signal source, identifying, by the control device, the predetermined signal source according to the device identification, obtaining a first signal quality of a first wireless signal forming the wireless signal field and received by the control device and sent by the predetermined signal source; determining whether the first signal quality of the first wireless signal is within a predetermined signal quality range during a certain period; obtaining a signal quality characteristic of the first signal quality if it is determined that the first signal quality of the first wireless signal is within the predetermined signal quality range during the certain period; detecting whether the signal quality characteristic matches with a predetermined characteristic sample; and triggering an intelligent device to perform the predetermined operation if the signal quality characteristic matches with the predetermined characteristic sample, the signal quality being represented by RSSI value. receiving, by a control device, a message sent via a wireless signal field by a predetermined signal source and carrying device identification of the predetermined signal source, identifying, by the control device, the predetermined signal source according to the device identification, obtaining a first signal quality of a first wireless signal forming the wireless signal field and received by the control device and sent by the predetermined signal source; determining whether the first signal quality of the first wireless signal is within a predetermined signal quality range during a certain period; obtaining a signal quality characteristic of the first signal quality if it is determined that the first signal quality of the first wireless signal is within the predetermined signal quality range during the certain period; detecting whether the signal quality characteristic matches with a predetermined characteristic sample; and triggering an intelligent device to perform the predetermined operation if the signal quality characteristic matches with the predetermined characteristic sample, the signal quality being represented by RSSI value.
A textile sensor (100; 200) formed by weaving conductive threads and insulating threads, the sensor being generally ribbon-shaped, extending along a longitudinal axis (X100) and having: - a width (L100), measured along a transverse axis (Y100) which is orthogonal to the longitudinal axis (X100), and - a thickness (E100) measured along a thickness axis (E100), which is orthogonal to the longitudinal axis (X100) and the transverse axis (Y100), - the textile sensor (100; 200) comprises two textile sheets , which are arranged facing each other, and which are connected to each other by so-called connecting threads , characterised in that : - each sheet comprises two lateral strips , which are opposite each other, which extend along the longitudinal axis (X100) and which are separated by a central strip , the central strip comprising warp threads including the conductive threads , so as to form a conduction track which extends parallel to the longitudinal axis (X100), - the connecting threads connect each side strip of one sheet to a respective side strip of the other sheet, - the conduction track of one sheet is arranged opposite the conduction track of the other sheet, - the connecting threads together form a damping structure that is resiliently deformable between a relaxed configuration, wherein the damping structure holds the two conduction tracks at a distance from and facing each other, and a stressed configuration, wherein two conduction tracks are closer together than in the relaxed configuration, the damping structure tending to return to its relaxed configuration by resilient return. - a width (L100), measured along a transverse axis (Y100) which is orthogonal to the longitudinal axis (X100), and - a thickness (E100) measured along a thickness axis (E100), which is orthogonal to the longitudinal axis (X100) and the transverse axis (Y100), - the textile sensor (100; 200) comprises two textile sheets , which are arranged facing each other, and which are connected to each other by so-called connecting threads , characterised in that : - each sheet comprises two lateral strips , which are opposite each other, which extend along the longitudinal axis (X100) and which are separated by a central strip , the central strip comprising warp threads including the conductive threads , so as to form a conduction track which extends parallel to the longitudinal axis (X100), - the connecting threads connect each side strip of one sheet to a respective side strip of the other sheet, - the conduction track of one sheet is arranged opposite the conduction track of the other sheet, - the connecting threads together form a damping structure that is resiliently deformable between a relaxed configuration, wherein the damping structure holds the two conduction tracks at a distance from and facing each other, and a stressed configuration, wherein two conduction tracks are closer together than in the relaxed configuration, the damping structure tending to return to its relaxed configuration by resilient return.
A soundproof structure comprising: at least one membrane-like member, a support which supports the membrane-like member so as to perform membrane vibration, wherein a rear surface space is formed on one surface side of the membrane-like member, and a sound is absorbed due to vibration of the membrane-like member, wherein, in a case where a Young's modulus of the membrane-like member is set as E (Pa), a thickness of the membrane-like member is set as t (m), a thickness of the rear surface space is set as d (m), and an equivalent circle diameter of a region where the membrane-like member vibrates is set as Φ (m), a hardness E × t 3 (Pa · m 3 ) of the membrane-like member is 21.6 × d -1.25 × Φ 4.15 or less, and characterized in that a sound absorption coefficient of the vibration of the membrane-like member at a frequency in at least one high-order vibration mode existing at frequencies of 1 kHz or higher is higher than a sound absorption coefficient at a frequency in a fundamental vibration mode. at least one membrane-like member, a support which supports the membrane-like member so as to perform membrane vibration, wherein a rear surface space is formed on one surface side of the membrane-like member, and a sound is absorbed due to vibration of the membrane-like member, wherein, in a case where a Young's modulus of the membrane-like member is set as E (Pa), a thickness of the membrane-like member is set as t (m), a thickness of the rear surface space is set as d (m), and an equivalent circle diameter of a region where the membrane-like member vibrates is set as Φ (m), a hardness E × t 3 (Pa · m 3 ) of the membrane-like member is 21.6 × d -1.25 × Φ 4.15 or less, and characterized in that a sound absorption coefficient of the vibration of the membrane-like member at a frequency in at least one high-order vibration mode existing at frequencies of 1 kHz or higher is higher than a sound absorption coefficient at a frequency in a fundamental vibration mode.
A mounter comprising: a component holding tool configured to hold a component and mount the held component on a board; an imaging device configured to image any position on a base on which the board is loaded; and a control device characterized in that the control device includes a path imaging section configured to, in a case in which mounting work is interrupted by a stoppage of the mounter and then restarted, use the imaging device to image the base on which the board is loaded along a path over which the component holding tool moved until the position of the component holding tool when mounting work was interrupted; a dropped component determination section configured to determine whether the component dropped on the base on which the board is loaded based on image data captured by the path imaging section ; and a dropped notification section configured to report information to an operator indicating that a component has been dropped in a case in which the component was determined to have been dropped by the dropped component determination section . a component holding tool configured to hold a component and mount the held component on a board; an imaging device configured to image any position on a base on which the board is loaded; and a control device characterized in that the control device includes a path imaging section configured to, in a case in which mounting work is interrupted by a stoppage of the mounter and then restarted, use the imaging device to image the base on which the board is loaded along a path over which the component holding tool moved until the position of the component holding tool when mounting work was interrupted; a dropped component determination section configured to determine whether the component dropped on the base on which the board is loaded based on image data captured by the path imaging section ; and a dropped notification section configured to report information to an operator indicating that a component has been dropped in a case in which the component was determined to have been dropped by the dropped component determination section . a path imaging section configured to, in a case in which mounting work is interrupted by a stoppage of the mounter and then restarted, use the imaging device to image the base on which the board is loaded along a path over which the component holding tool moved until the position of the component holding tool when mounting work was interrupted; a dropped component determination section configured to determine whether the component dropped on the base on which the board is loaded based on image data captured by the path imaging section ; and a dropped notification section configured to report information to an operator indicating that a component has been dropped in a case in which the component was determined to have been dropped by the dropped component determination section .
A process for printing wood-based flat elements , comprising a preliminary step of graphic composition by means of an electronic processor and relative software, and a printing step, wherein to print the wood-based flat elements an ink-jet printer of the single-pass type is used controlled by the electronic processor, wherein said ink-jet printer is provided with print heads, each print head (12.1) relating to only one colour chosen from the list of cyan, magenta, yellow and black for application of chosen colours, said print heads (12.1-12.4) being arranged in rows, with each row relating to only one colour, and wherein for each colour employed in the printer the number of print heads (12.1-12.4) is that required to cover the entire width of that surface of the elements to be printed, characterized in that said flat element is maintained at rest and the printer performs a motion relative thereto during the printing operation, in order to print the entire surface thereof involved, wherein said relative motion results in the flat element having passed below said print heads (12.1-12.4) and in the entire surface of the flat element involved having been printed in a single pass of said flat element below said print heads.
A method, performed by a Proxy Call Session Control Function, P-CSCF, in a communication system, of facilitating P-CSCF restoration when a P-CSCF failure has occurred, said method comprising: receiving, from another function of said communication system, a Session Initiation Protocol, SIP, message when said P-CSCF has been selected as an alternative P-CSCF to a failed P-CSCF characterised in that said method further comprises: sending, to an associated Policy and Charging Rules Function, PCRF, based on said SIP message, a message including a P-CSCF restoration indication. receiving, from another function of said communication system, a Session Initiation Protocol, SIP, message when said P-CSCF has been selected as an alternative P-CSCF to a failed P-CSCF characterised in that said method further comprises: sending, to an associated Policy and Charging Rules Function, PCRF, based on said SIP message, a message including a P-CSCF restoration indication.