mhurhangee/ep-ind-claims huggingface dataset:
A system for manufacturing an electrode for a secondary battery, comprising: an active material drying unit configured to dry an active material coated on an electrode current collector; and a tester unit configured to measure a dried state of the active material by performing a scratch test to the dried active material, the tester unit being configured to measure a force applied to the tester unit when a scratch is generated at the electrode active material, the system further comprising a control unit configured to control a drying temperature of the drying unit according to a change of the force measured by the tester unit, and a carrying unit configured to carrying the electrode current collector and the electrode, the tester unit including a scratch tester located on an electrode active material completely dried by the drying unit and configured to generate a scratch on the electrode active material as the electrode moves. an active material drying unit configured to dry an active material coated on an electrode current collector; and a tester unit configured to measure a dried state of the active material by performing a scratch test to the dried active material, the tester unit being configured to measure a force applied to the tester unit when a scratch is generated at the electrode active material, the system further comprising a control unit configured to control a drying temperature of the drying unit according to a change of the force measured by the tester unit, and a carrying unit configured to carrying the electrode current collector and the electrode, the tester unit including a scratch tester located on an electrode active material completely dried by the drying unit and configured to generate a scratch on the electrode active material as the electrode moves.
A lock comprising a locking cylinder and an electronically controllable locking device which has a shaft comprising two sections (4, 5) with handles arranged at the ends, wherein the sections (4, 5) of the shaft can be brought into an operative connection via a coupling after recognition of an authorization code that has been entered into the electronic locking device, characterized in that the locking cylinder comprises a single mechanical emergency lock comprising a drum body which is arranged in a rotatable manner in a cylindrical opening of the locking cylinder, which emergency lock can be actuated by a mechanical key, and by means of which lock an operative connection between the sections (4, 5) of the shaft can be established or loosened independent from the electronically controllable locking device.
A wound therapy device, comprising: a skin contacting element configured for covering an associated tissue site, the skin contacting element having a skin contacting side and an interface side, which is opposite the skin contacting side; a reactor for creating a pressure condition at the associated tissue site upon actuation thereof; and a reactor housing element for accommodating the reactor, the reactor housing element having a lower affixing side and an upper side, which is opposite the lower affixing side, wherein the reactor housing element is configured to be affixed to the skin contacting element after the reactor is actuated; characterized in that the reactor housing element cooperates with the skin contacting element to define an enclosed volume around and/or at the tissue site; the reactor being configured to consume oxygen and being provided as a package including an upper layer and a lower layer, the upper layer being affixed to the lower layer to enclose a reactor substrate therebetween so as to provide an air-tight seal so that oxygen is precluded from access to the reactor and that removal of the upper layer from the lower layer, or vice versa, in whole or in part, allows oxygen access to the reactor so that oxygen can be consumed by the reactor. a skin contacting element configured for covering an associated tissue site, the skin contacting element having a skin contacting side and an interface side, which is opposite the skin contacting side; a reactor for creating a pressure condition at the associated tissue site upon actuation thereof; and a reactor housing element for accommodating the reactor, the reactor housing element having a lower affixing side and an upper side, which is opposite the lower affixing side, wherein the reactor housing element is configured to be affixed to the skin contacting element after the reactor is actuated; characterized in that the reactor housing element cooperates with the skin contacting element to define an enclosed volume around and/or at the tissue site; the reactor being configured to consume oxygen and being provided as a package including an upper layer and a lower layer, the upper layer being affixed to the lower layer to enclose a reactor substrate therebetween so as to provide an air-tight seal so that oxygen is precluded from access to the reactor and that removal of the upper layer from the lower layer, or vice versa, in whole or in part, allows oxygen access to the reactor so that oxygen can be consumed by the reactor.
A scanner comprising: a scanning tower comprising a scanning window; a first illumination source located within the scanning tower; and a second illumination source located within the scanning tower; characterized in that each illumination source comprises a housing, a light source and a reflector, the light source and the reflector being located within the housing, the reflector being configured to redirect light into a scanning volume. a scanning tower comprising a scanning window; a first illumination source located within the scanning tower; and a second illumination source located within the scanning tower; characterized in that each illumination source comprises a housing, a light source and a reflector, the light source and the reflector being located within the housing, the reflector being configured to redirect light into a scanning volume.
A Heads-Up Display, HUD, system for a pair of glasses comprising: a glasses lens assembly comprising a lens and having a first side and a second side opposite the first side; a power module mounted to the first side of the glasses lens assembly; an electronics module mounted to the second side of the glasses lens assembly; and a display for displaying images under control of the electronics module, the display mounted on a display arm extending from the electronics module to a position within a field of vision of a user wearing the glasses; characterized in that the glasses lens assembly provides one or more electrically conductive paths applied to the lens from the first side to the second side of the glasses lens assembly, and contacts of electronics module are connected through lens assembly to receive electrical power from contacts of power module. a glasses lens assembly comprising a lens and having a first side and a second side opposite the first side; a power module mounted to the first side of the glasses lens assembly; an electronics module mounted to the second side of the glasses lens assembly; and a display for displaying images under control of the electronics module, the display mounted on a display arm extending from the electronics module to a position within a field of vision of a user wearing the glasses;
A resistivity measuring tool used in a drill string having a drill bit on a distal end for drilling a wellbore in a formation, the tool comprising: a tool body having a longitudinal axis; a sensor configured to measure the angular position of the tool body relative to the wellbore; at least one axial transmitting antenna including a wire winding for generating an axial magnetic moment parallel with the longitudinal axis; and at least one transverse receiving antenna; characterized in that the at least one transverse receiving antenna comprises: an antenna body disposed within a pocket extending radially inward from an outer surface of the tool body, the antenna body being in the shape of a rectangle or of an ellipse and having the longest axis disposed longitudinally in the tool body; and one or more turns of wire wound around the antenna body such that the wire extends substantially along the longitudinal direction of the tool axis, the wire winding generating a transverse magnetic moment orthogonal to the tool body longitudinal axis, and wherein at least one axial transmitting antenna is configured to transmit electromagnetic energy into the formation and induce a voltage signal related to a parameter of the formation in a transverse receiving antenna. a tool body having a longitudinal axis; a sensor configured to measure the angular position of the tool body relative to the wellbore; at least one axial transmitting antenna including a wire winding for generating an axial magnetic moment parallel with the longitudinal axis; and at least one transverse receiving antenna; characterized in that the at least one transverse receiving antenna comprises: an antenna body disposed within a pocket extending radially inward from an outer surface of the tool body, the antenna body being in the shape of a rectangle or of an ellipse and having the longest axis disposed longitudinally in the tool body; and one or more turns of wire wound around the antenna body such that the wire extends substantially along the longitudinal direction of the tool axis, the wire winding generating a transverse magnetic moment orthogonal to the tool body longitudinal axis, and wherein at least one axial transmitting antenna is configured to transmit electromagnetic energy into the formation and induce a voltage signal related to a parameter of the formation in a transverse receiving antenna. an antenna body disposed within a pocket extending radially inward from an outer surface of the tool body, the antenna body being in the shape of a rectangle or of an ellipse and having the longest axis disposed longitudinally in the tool body; and one or more turns of wire wound around the antenna body such that the wire extends substantially along the longitudinal direction of the tool axis, the wire winding generating a transverse magnetic moment orthogonal to the tool body longitudinal axis, and wherein at least one axial transmitting antenna is configured to transmit electromagnetic energy into the formation and induce a voltage signal related to a parameter of the formation in a transverse receiving antenna.
Arrangement of knitting tool mounting units each having a carrier which comprises a plurality of knitting tools that in a longitudinal direction are disposed beside one another, a bar-bearing face, and a fastening geometry, characterized in that the carrier in the longitudinal direction is releasably connected to at least one neighbouring carrier of a further knitting tool mounting unit, the connection of the carriers enabling a plurality of knitting tool holders to be handled together and mounted together on a bar..
A method of communicating triggers in a telecommunication network, the method comprising: receiving in a processor a trigger communication message from a source device, the trigger communication message including information suitable for causing a destination device to automatically establish a connection to the source device to communicate application level information; determining whether the trigger communication message includes a pseudonym identity value; using the pseudonym identity value included in the trigger communication message to retrieve a hardware-based identity value from memory when it is determined that the trigger communication message includes a pseudonym identity; updating the trigger communication message by replacing the pseudonym identity value with the retrieved hardware-based identity value; receiving policy information from a component (202, 204) in the telecommunication network; determining whether the trigger communication message should be sent to the destination device, based on the received policy information; sending the trigger communication message to the destination device only when it is determined from the received policy information that the trigger communication message should be sent to the destination device wherein sending the trigger communication message to the destination device comprises sending the updated trigger communication message to the destination device. receiving in a processor a trigger communication message from a source device, the trigger communication message including information suitable for causing a destination device to automatically establish a connection to the source device to communicate application level information; determining whether the trigger communication message includes a pseudonym identity value; using the pseudonym identity value included in the trigger communication message to retrieve a hardware-based identity value from memory when it is determined that the trigger communication message includes a pseudonym identity; updating the trigger communication message by replacing the pseudonym identity value with the retrieved hardware-based identity value; receiving policy information from a component (202, 204) in the telecommunication network; determining whether the trigger communication message should be sent to the destination device, based on the received policy information; sending the trigger communication message to the destination device only when it is determined from the received policy information that the trigger communication message should be sent to the destination device wherein sending the trigger communication message to the destination device comprises sending the updated trigger communication message to the destination device.
A method for manufacturing a progressive-power lens, which is designed by arranging a progressive-power surface on a convex surface and combining the convex surface with a concave surface so as to meet prescription values of a spectacle wearer, the method comprising the steps of: previously preparing a semi-finished lens group having concave surfaces classified based on a predetermined classification table corresponding to spherical power and cylindrical power of a manufacturing power range; selecting a most suitable semi-finished lens of the semi-finished lens group according to an order, designing the progressive-power surface on the convex surface side of the selected semi-finished lens so as to meet the prescription values, and finishing the progressive power surface on the convex surface side of the selected semi-finished lens as designed by performing free-form processing, wherein a cylindrical power of the prescription values is different from a cylindrical power of a cylindrical component on the semi-finished concave surface side of the selected semi-finished lens, in designing the progressive-power surface on the convex surface side of the selected semi-finished lens so as to meet the cylindrical power of the prescription values, the cylindrical component on the convex surface side and the cylindrical component on the semi-finished concave surface side of the selected semi-finished lens are combined with each other, and wherein the cylindrical power is a far-sight cylindrical power. previously preparing a semi-finished lens group having concave surfaces classified based on a predetermined classification table corresponding to spherical power and cylindrical power of a manufacturing power range; selecting a most suitable semi-finished lens of the semi-finished lens group according to an order, designing the progressive-power surface on the convex surface side of the selected semi-finished lens so as to meet the prescription values, and finishing the progressive power surface on the convex surface side of the selected semi-finished lens as designed by performing free-form processing, wherein a cylindrical power of the prescription values is different from a cylindrical power of a cylindrical component on the semi-finished concave surface side of the selected semi-finished lens, in designing the progressive-power surface on the convex surface side of the selected semi-finished lens so as to meet the cylindrical power of the prescription values, the cylindrical component on the convex surface side and the cylindrical component on the semi-finished concave surface side of the selected semi-finished lens are combined with each other, and wherein the cylindrical power is a far-sight cylindrical power.
A laboratory system comprising: - multiple subsystems (SB1 - SBn), each subsystem (SB1 - SBn) being configured to receive and carry out a command; and - a master control device configured to process a command string and to transmit commands to a corresponding subsystem (SB1 - SBn), wherein said command string comprises one or more commands and/or one or more command groups, and wherein each command group comprises one or more commands and/or one or more command groups, and wherein one or more commands and/or one or more command groups may be nested on multiple levels of grouping in the command string, characterised in that the master control device is configured: - to simultaneously process the one or more commands and/or the one or more command groups comprised within the same command group prior to simultaneously transmitting the commands comprised within the same command group to the corresponding subsystem (SB1 - SBn); and - to sequentially process one or more commands and/or one or more command groups not comprised within the same command group and to sequentially transmit the commands not comprised within the same command group to the corresponding subsystem (SB1 - SBn), and wherein a command group, which is nested within a certain command group, has a higher execution priority and is executed prior to a command comprised within said certain command group, and wherein the master control device is further configured to process said command string in a recursive manner, each time going one level inside the nested groups of commands and transmitting individual commands to the corresponding subsystem (SB1 - SBn) when a level is reached where the commands are not grouped. - multiple subsystems (SB1 - SBn), each subsystem (SB1 - SBn) being configured to receive and carry out a command; and - a master control device configured to process a command string and to transmit commands to a corresponding subsystem (SB1 - SBn), - to simultaneously process the one or more commands and/or the one or more command groups comprised within the same command group prior to simultaneously transmitting the commands comprised within the same command group to the corresponding subsystem (SB1 - SBn); and - to sequentially process one or more commands and/or one or more command groups not comprised within the same command group and to sequentially transmit the commands not comprised within the same command group to the corresponding subsystem (SB1 - SBn),
Field device for process automation technology, particularly a sensor, an actuator and/or a wireless adapter, with a wired communication interface (16, 26, 38, 50) and with a function unit (18, 18', 28, 40, 52) assigned to the communication interface (16, 26, 38, 50), said function unit being designed in such a way that it transmits and/or receives digital signals via the communication interface (16, 26, 38, 50), characterized in that the field device (2, 2', 24, 30) is designed in such a way that the function unit (18, 18', 28, 40, 52) can be operated in clocked cycles, wherein in the clocked mode activated periods in which the function unit (18, 18', 28, 40, 52) is activated alternate with deactivated periods in which the function unit (18, 18', 28, 40, 52) is deactivated, and in that the function unit (18, 18', 52) features a carrier detect logic (20, 54) which allows the detection - before communication is performed - of a predefined wake-up signal which is sent by a device (22, 56) that is connected to the communication interface (16, 26, 38, 50) and arrives at the communication interface (16, 50), said signal being of a length which is longer than a deactivated period of the function unit (18, 18', 28, 40, 52), wherein the function unit receives and/or transmits digital signals during the activated periods in such a way that the function unit is available during the activated periods for communication via the communication interface, and wherein the function unit is used to switch the field device to active mode when the wake-up signal is detected at the function unit.
A transceiver configured to recover within less than 1 millisecond from quality degradation in its operating point, comprising: a receiver analog front end, Rx AFE,, an adaptive module comprising at least one of an adaptive digital equalizer and an adaptive digital canceller, ADEC,, and a slicer; the Rx AFE receives a signal of more than 500 Mbps from a second transceiver over a link, and feeds the signal to the ADEC that generates a slicer input signal; the slicer utilizes the slicer input signal to generate slicing decisions and slicing errors; wherein the slicing errors are used to adapt the ADEC; shortly after identifying quality degradation in the transceiver's operating point, the transceiver indicates the second transceiver to transmit known data; and within less than 1 millisecond from identifying the quality degradation, the transceiver utilizes the known data to improve the accuracy of the slicing errors, which enables fast adaptation of the ADEC, that improves the quality in the transceiver's operating point to a level that enables the transceiver to indicate the second transceiver to transmit data; characterized in that the slicer includes a soft decision, a selector, and an error generator and, when the second transceiver transmits the known data, the selector outputs a known decision instead of a decision received from the soft decision, and the error generator generates the slicing errors based on a reconstructed representation of an original transmitted signal at the slicer input and the known decision. a receiver analog front end, Rx AFE,, an adaptive module comprising at least one of an adaptive digital equalizer and an adaptive digital canceller, ADEC,, and a slicer; the Rx AFE receives a signal of more than 500 Mbps from a second transceiver over a link, and feeds the signal to the ADEC that generates a slicer input signal; the slicer utilizes the slicer input signal to generate slicing decisions and slicing errors; wherein the slicing errors are used to adapt the ADEC; shortly after identifying quality degradation in the transceiver's operating point, the transceiver indicates the second transceiver to transmit known data; and within less than 1 millisecond from identifying the quality degradation, the transceiver utilizes the known data to improve the accuracy of the slicing errors, which enables fast adaptation of the ADEC, that improves the quality in the transceiver's operating point to a level that enables the transceiver to indicate the second transceiver to transmit data;