mhurhangee/ep-ind-claims huggingface dataset:
System for control and/or analytics of an industrial process, having on the plant side at least one automation unit, which is connected by means of a first data connection to a monitoring system for control and/or monitoring of the process and is designed to carry out a determination, within a time t freq, of results of a first process control algorithm based on process input variables N read in by time t=0, wherein the system has at least one processing unit external to the plant, - wherein the processing unit external to the plant is connected via distributed communication mechanisms to the at least one automation unit and is exchanging data with this via a second data connection, - wherein an input element of the plant-side automation unit is intended to read in process input variables M by time t=0, - wherein a send element of the plant-side automation unit is designed to send the process input variables M to the processing unit external to the plant for processing via the second data connection, - wherein a processing system of the processing unit external to the plant is intended to execute a second process control algorithm on the basis of the process input variables M, - wherein a receive element of the local automation unit is intended to receive results of the second process control algorithm, - wherein a checking element in the plant-side automation unit is intended to check on whether the results of the second process control algorithm were received within a time t<t freq or t=t freq, - wherein an output element in the plant-side automation unit is intended to apply the results of the second process control algorithm to the process, where these results were received within time t<t freq or t=t freq, wherein the system is designed to apply the results of the first process control algorithm to the process, where the results of the second process control algorithm were received within the time t>t freq. - wherein the processing unit external to the plant is connected via distributed communication mechanisms to the at least one automation unit and is exchanging data with this via a second data connection, - wherein an input element of the plant-side automation unit is intended to read in process input variables M by time t=0, - wherein a send element of the plant-side automation unit is designed to send the process input variables M to the processing unit external to the plant for processing via the second data connection, - wherein a processing system of the processing unit external to the plant is intended to execute a second process control algorithm on the basis of the process input variables M, - wherein a receive element of the local automation unit is intended to receive results of the second process control algorithm, - wherein a checking element in the plant-side automation unit is intended to check on whether the results of the second process control algorithm were received within a time t<t freq or t=t freq, - wherein an output element in the plant-side automation unit is intended to apply the results of the second process control algorithm to the process, where these results were received within time t<t freq or t=t freq,
A plug and socket connector comprising a first, male part and a second female part and a releasable locking mechanism (19,20,21,22,23) adapted to retain the male and female parts together, said releasable locking mechanism comprising two protrusions (19,20) on one of said parts (11, 12) of the connector, said protrusions being adapted to engage with corresponding apertures in the other of said parts (11, 12), said protrusions are resiliently deformable and adapted to flex in substantially different planes in order to engage and disengage with their respective apertures, characterised in that one of the protrusions (19, 20) incorporates a breakable region, enabling some or all of that protrusion (19, 20) to be broken off if it is not required.
A soft tissue device, comprising a mesenchymal cell-binding moiety covalently linked to a scaffold complex, and comprising a plurality of pores present on or within a surface of the device, wherein the pores are present at a concentration of at least 50 pores per cm 2 of the surface, and wherein at least 80% of the pores have an average pore diameter on the surface of at least 5 microns, wherein: a. the mesenchymal cell-binding moiety is capable of cell recruitment, capture, or retention whereby the mesenchymal cell-binding moiety enhances the ability of the scaffold complex to recruit, capture, and/or embed mesenchymal cells; and b. the scaffold complex comprises a polymeric fiber having a mean diameter of from 100 nm to 8000 nm covalently linked to a hydrogel material, wherein the ratio of fiber to hydrogel material is from 1:10 to 10:1 on a component-mass basis, wherein: i. the hydrogel material comprises hyaluronic acid; and ii. the polymeric fiber comprises a biocompatible biodegradable polyester; wherein the mesenchymal cell-binding moiety comprises an adipose-binding peptide selected from the group consisting of CMLAGWIPC, CWLGEWLGC, CSWKYWFGEC, CGQWLGNWLC, and CKGGRAKDC. a. the mesenchymal cell-binding moiety is capable of cell recruitment, capture, or retention whereby the mesenchymal cell-binding moiety enhances the ability of the scaffold complex to recruit, capture, and/or embed mesenchymal cells; and b. the scaffold complex comprises a polymeric fiber having a mean diameter of from 100 nm to 8000 nm covalently linked to a hydrogel material, wherein the ratio of fiber to hydrogel material is from 1:10 to 10:1 on a component-mass basis, wherein: i. the hydrogel material comprises hyaluronic acid; and ii. the polymeric fiber comprises a biocompatible biodegradable polyester; i. the hydrogel material comprises hyaluronic acid; and ii. the polymeric fiber comprises a biocompatible biodegradable polyester;
A device for keeping track of life-cycles of faults occurring in an optical fibre; the device further comprising: - a first detector configured to detect from received signal power first fault parameters related to an occurrence of a first fault on said optical fibre comprising a degradation in said received signal power, a tolerance on said degradation and a type of said first fault; - a database configured to store said first fault parameters; - a second detector configured to detect from said received signal power second fault parameters related to a restoration of a second fault on said optical fibre comprising an increase in said received signal power, a tolerance on said increase and a type of said second fault; - a comparator configured to compare said second fault parameters with stored fault parameters including said first fault parameters and to decide that said first fault is resolved if said first fault parameters most closely match said second fault parameters by said comparing. - a first detector configured to detect from received signal power first fault parameters related to an occurrence of a first fault on said optical fibre comprising a degradation in said received signal power, a tolerance on said degradation and a type of said first fault; - a database configured to store said first fault parameters; - a second detector configured to detect from said received signal power second fault parameters related to a restoration of a second fault on said optical fibre comprising an increase in said received signal power, a tolerance on said increase and a type of said second fault; - a comparator configured to compare said second fault parameters with stored fault parameters including said first fault parameters and to decide that said first fault is resolved if said first fault parameters most closely match said second fault parameters by said comparing.
A liquid sending method using a sample processing chip having a flow path into which a plurality of liquids flow, the method comprising: sending, into the flow path, a first liquid held in a liquid holding portion provided in the sample processing chip by applying pressure to the liquid holding portion; sending, into the flow path, a plurality of kinds of second liquids stored in a plurality of storage portions, respectively, provided in a liquid sending device connected to the sample processing chip, through a common injection hole provided in the sample processing chip, by applying pressure to the storage portion; and forming, in the flow path, a fluid containing the first liquid having been sent from the liquid holding portion, and the second liquid having been sent through the injection hole sending, into the flow path, a first liquid held in a liquid holding portion provided in the sample processing chip by applying pressure to the liquid holding portion; sending, into the flow path, a plurality of kinds of second liquids stored in a plurality of storage portions, respectively, provided in a liquid sending device connected to the sample processing chip, through a common injection hole provided in the sample processing chip, by applying pressure to the storage portion; and forming, in the flow path, a fluid containing the first liquid having been sent from the liquid holding portion, and the second liquid having been sent through the injection hole
A communication apparatus (10, 20) comprising: an encoding unit (111, 211) configured to generate a first sequence of encoded bits from a first sequence of bits by performing a first encoding procedure, and to generate a second sequence of encoded bits from a sequence of frozen bits and a second sequence of bits comprising the first sequence of bits and the first sequence of encoded bits by performing a second encoding procedure which is a polar encoding procedure; and a transmission unit (121, 221) configured to transmit a signal generated from the second sequence of encoded bits, wherein the encoding unit (111, 211) is configured to determine the second sequence of encoded bits based on a length of the second sequence of bits, and the communication apparatus is configured to determine the sequence of frozen bits such that the sequence of frozen bits has different values depending on the length of the second sequence of bits. an encoding unit (111, 211) configured to generate a first sequence of encoded bits from a first sequence of bits by performing a first encoding procedure, and to generate a second sequence of encoded bits from a sequence of frozen bits and a second sequence of bits comprising the first sequence of bits and the first sequence of encoded bits by performing a second encoding procedure which is a polar encoding procedure; and a transmission unit (121, 221) configured to transmit a signal generated from the second sequence of encoded bits, wherein the encoding unit (111, 211) is configured to determine the second sequence of encoded bits based on a length of the second sequence of bits, and the communication apparatus is configured to determine the sequence of frozen bits such that the sequence of frozen bits has different values depending on the length of the second sequence of bits.
An energetic material device, comprising: a casing; an energetic material in a solid state within the casing; an optical sensor (530a-d, 531a-d, 532a-d, 533a-d) encased within the energetic material to sense a condition of the energetic material; an optical fiber, wherein the optical fiber includes the optical sensor; characterized in that the energetic material device further comprises: an optical fiber positioning device (570a-c) supporting the optical fiber, thereby positioning the optical fiber in a strategic location. a casing; an energetic material in a solid state within the casing; an optical sensor (530a-d, 531a-d, 532a-d, 533a-d) encased within the energetic material to sense a condition of the energetic material; an optical fiber, wherein the optical fiber includes the optical sensor; characterized in that the energetic material device further comprises: an optical fiber positioning device (570a-c) supporting the optical fiber, thereby positioning the optical fiber in a strategic location.
Multi-directional valve in a device for the preparation of milk froth, comprising a housing and a valve body which can be rotated therein, the valve body having a plurality of valve paths (9a, 9b, 9c), wherein openings with a milk inlet, an air inlet, a cleaning fluid inlet and a valve outlet are provided in the housing, characterised in that two resilient ring seals (10, 11) are arranged about a lateral surface of the valve body, at an axial distance from one another, in that two ring grooves (12, 13) are formed inside on an inner wall, at the same axial distance from one another in the housing which is open at an end face, the ring seals (10, 11) engaging in the ring grooves in the assembled state of the multi-directional valve such that the valve body can be manually axially pulled out of the housing, and in that the ring seals (10, 11) are arranged on axial ends of the valve body.
A recoil spring abutment for a slide of a pistol having a recoil spring assembly, the slide including slide grooves on both sides, characterized in that the recoil spring abutment is designed to be insertable and mountable in the slide and includes a preferably essentially semi-cylindrical base body having at least partially continuous guide rails on both sides, and that the recoil spring abutment includes an essentially circular step on its rear side for receiving the recoil spring assembly. characterized in that the recoil spring abutment is designed to be insertable and mountable in the slide and includes a preferably essentially semi-cylindrical base body having at least partially continuous guide rails on both sides, and that the recoil spring abutment includes an essentially circular step on its rear side for receiving the recoil spring assembly.
A method for the cold retreading of a tyre comprising the following steps: - a removal step, during which the old, worn tread is removed from the tyre in order to expose an equatorial surface of a casing of the tyre; - a deposition step, during which a cushion and a pre-cured tread strip provided with a tread pattern are deposited around the equatorial surface of the casing; and - a curing step, during which the cushion arranged between the casing and the pre-cured tread strip is cured; the retreading method being characterized in that it comprises a conductive interposition step, during which a conductive adhesive compound is deposited between said cushion and said pre-cured tread strip and/or between said cushion and said casing; said conductive adhesive compound comprising at least one conductive material in a quantity ranging from 5 to 20% by weight and chosen among graphene, graphite and a carbon black having a surface area which is greater than or equal to 300 m 2 /gr; and in that said curing step comprises a connection operation, during which said conductive adhesive compound is connected either to a heat source or to a power source so as to transmit the heat to the cushion. - a removal step, during which the old, worn tread is removed from the tyre in order to expose an equatorial surface of a casing of the tyre; - a deposition step, during which a cushion and a pre-cured tread strip provided with a tread pattern are deposited around the equatorial surface of the casing; and - a curing step, during which the cushion arranged between the casing and the pre-cured tread strip is cured;
A method for making a component of at least one thermoformable material, comprising the steps of: providing a first layer made of a first pre-impregnated material; providing a second or core layer made of a polymer material; providing a third layer made of the first pre-impregnated material; forming a sheet by placing the second or core layer between the first layer and the third layer; placing the sheet formed of the first layer, the second layer, and the third layer into a heated mold such that the second layer is disposed between the first layer and the third layer; and closing the mold under a desired cure temperature and pressure and curing the sheet in the mold such that the first layer is bonded to the second layer, and the third layer is bonded to the second layer. providing a first layer made of a first pre-impregnated material; providing a second or core layer made of a polymer material; providing a third layer made of the first pre-impregnated material; forming a sheet by placing the second or core layer between the first layer and the third layer; placing the sheet formed of the first layer, the second layer, and the third layer into a heated mold such that the second layer is disposed between the first layer and the third layer; and closing the mold under a desired cure temperature and pressure and curing the sheet in the mold such that the first layer is bonded to the second layer, and the third layer is bonded to the second layer.
A method for producing a stretchable sheet from a nonwoven fabric comprising extensibles fibers and stretchable fibers, wherein extensible fibers are generally non-elastically extendable and stretchable fibers are elastically extendable, the method comprising: passing the nonwoven fabric through a transport roll followed by a step of stretching the nonwoven fabric by an upper and lower stretching roll (3, 4) in the cross-machine direction perpendicular to the machine direction in which the nonwoven fabric is transported, whereby wrinkles are formed in the nonwoven fabric in the machine direction, wherein the transport roll is situated above the upper stretching roll and the nonwoven fabric is wound around the upper stretching roll lengthening a distance over which the nonwoven fabric contacts with the upper stretching roll; and followed by making a width and the thickness of the stretched nonwoven fabric to be uniform by a step of compressing the nonwoven fabric stretched in the step of stretching the nonwoven fabric by a pair of flat rolls (5, 6), or by a pattern roll and a flat roll in the thickness direction of the nonwoven fabric, wherein the nonwoven fabric is compressed while being heated. passing the nonwoven fabric through a transport roll followed by a step of stretching the nonwoven fabric by an upper and lower stretching roll (3, 4) in the cross-machine direction perpendicular to the machine direction in which the nonwoven fabric is transported, whereby wrinkles are formed in the nonwoven fabric in the machine direction, wherein the transport roll is situated above the upper stretching roll and the nonwoven fabric is wound around the upper stretching roll lengthening a distance over which the nonwoven fabric contacts with the upper stretching roll; and followed by making a width and the thickness of the stretched nonwoven fabric to be uniform by a step of compressing the nonwoven fabric stretched in the step of stretching the nonwoven fabric by a pair of flat rolls (5, 6), or by a pattern roll and a flat roll in the thickness direction of the nonwoven fabric, wherein the nonwoven fabric is compressed while being heated.
A method for the personalization of integrated circuit cards, comprising a simulation procedure at a server or system of servers, including the steps of: providing fixed part data at said server or system of servers as a sequence of memory pages, simulating downloading a single image corresponding to a fixed part, by writing the data image of the fixed part in a simulated non volatile memory of a simulated card, storing said sequence of memory pages forming fixed part data in said simulated non volatile memory which is organized in pages or blocks, providing a sequence of personalization commands at said server or system of servers and simulating executing said sequence of personalization commands to introduce a set of personalization data in the single data image of the fixed part for obtaining a single card image (CI i) comprising the fixed part and the personalization data, encrypting said single card image (CI i) obtaining an encrypted single image (ECI i), the encrypted single image (ECI i) being then downloaded (240, 250) in a memory of the given card (50 i), said downloading (240, 250) an encrypted single image (ECI i) in a memory of the given card (50 i) includes transmitting from said server to a production machine said encrypted single image (ECI i) and downloading from the production machine said encrypted single image (ECI i) in the memory of the given card (50 i). providing fixed part data at said server or system of servers as a sequence of memory pages, simulating downloading a single image corresponding to a fixed part, by writing the data image of the fixed part in a simulated non volatile memory of a simulated card, storing said sequence of memory pages forming fixed part data in said simulated non volatile memory which is organized in pages or blocks, providing a sequence of personalization commands at said server or system of servers and simulating executing said sequence of personalization commands to introduce a set of personalization data in the single data image of the fixed part for obtaining a single card image (CI i) comprising the fixed part and the personalization data, encrypting said single card image (CI i) obtaining an encrypted single image (ECI i), the encrypted single image (ECI i) being then downloaded (240, 250) in a memory of the given card (50 i), said downloading (240, 250) an encrypted single image (ECI i) in a memory of the given card (50 i) includes transmitting from said server to a production machine said encrypted single image (ECI i) and downloading from the production machine said encrypted single image (ECI i) in the memory of the given card (50 i).
Sensor head for a force or torque sensor for measuring a force or torque in a ferromagnetic body, comprising: a magnetic field generating unit for generating a magnetic field in the ferromagnetic body, and a magnetic field measuring unit for measuring a magnetic field change in the ferromagnetic body, wherein the magnetic field generating unit comprises an excitation coil and a soft-magnetic excitation flux amplifying element, wherein the magnetic field measuring unit comprises a plurality of measuring coils with a soft-magnetic measuring flux amplifying element, wherein at least the excitation coil and the measurement coils (22, 22a-22d) are integrated on a common circuit board element or MEMS device, wherein the excitation coil and the measurement coils (22, 22a-22d) are composed of planar coils formed in a conductor layer of the circuit board element, wherein the conductor layer includes a planar coil for forming a part of a first measurement coil and a planar coil for forming a part of a second measurement coil and a planar coil for forming a part of an excitation coil arranged in a plane, and a plurality of such conductor layers including a plurality of planar coils are arranged with insulating interlayers to form coil packs forming the first measurement coil (22, 22a) and the second measurement coil (22, 22b) and the excitation coil. a magnetic field generating unit for generating a magnetic field in the ferromagnetic body, and a magnetic field measuring unit for measuring a magnetic field change in the ferromagnetic body, wherein the magnetic field generating unit comprises an excitation coil and a soft-magnetic excitation flux amplifying element, wherein the magnetic field measuring unit comprises a plurality of measuring coils with a soft-magnetic measuring flux amplifying element, wherein at least the excitation coil and the measurement coils (22, 22a-22d) are integrated on a common circuit board element or MEMS device, wherein the excitation coil and the measurement coils (22, 22a-22d) are composed of planar coils formed in a conductor layer of the circuit board element, wherein the conductor layer includes a planar coil for forming a part of a first measurement coil and a planar coil for forming a part of a second measurement coil and a planar coil for forming a part of an excitation coil arranged in a plane, and a plurality of such conductor layers including a plurality of planar coils are arranged with insulating interlayers to form coil packs forming the first measurement coil (22, 22a) and the second measurement coil (22, 22b) and the excitation coil.