mhurhangee/patent-ind-claim-en huggingface dataset:
A label construction (101A; 101B; 101C; 201) comprising: a substrate (103A; 103B; 103C; 203) having a first and second opposite side, said substrate comprising: a layer of microporous film (105; 205), and a layer of elastomeric film (107; 207), wherein the layer of microporous film and the layer of elastomeric film are laminated together; and one or more layers of functional materials (111A; 111B; 111C; 211) disposed on at least one of the first and second sides of the substrate; wherein the one or more layers of functional materials (111A; 111B; 111C; 211) include a layer of curable casting resin having an optical security image imprinted therein. a substrate (103A; 103B; 103C; 203) having a first and second opposite side, said substrate comprising: a layer of microporous film (105; 205), and a layer of elastomeric film (107; 207), wherein the layer of microporous film and the layer of elastomeric film are laminated together; and a layer of microporous film (105; 205), and a layer of elastomeric film (107; 207), wherein the layer of microporous film and the layer of elastomeric film are laminated together; and one or more layers of functional materials (111A; 111B; 111C; 211) disposed on at least one of the first and second sides of the substrate; wherein the one or more layers of functional materials (111A; 111B; 111C; 211) include a layer of curable casting resin having an optical security image imprinted therein.
A cutting tool identification system for use during a surgical procedure, the system comprising: a cutting tool assembly comprising: a shaft having a cutting element , and at least one identifying feature that uniquely corresponds to the cutting element; a drive assembly comprising a reference pin , the drive assembly configured to receive at least a portion of the cutting tool assembly; a motor mechanically connected to the drive assembly; a control unit configured to activate the motor to move the cutting tool assembly such that the reference pin engages with the at least one identifying feature; characterized in that the system further comprises: a sensor system configured to determine positioning information related to the reference pin when the reference pin engages the at least one identifying feature; and a computing unit configured to: receive the positioning information from the sensor system, and identify the cutting element based upon the position information. a cutting tool assembly comprising: a shaft having a cutting element , and at least one identifying feature that uniquely corresponds to the cutting element; a shaft having a cutting element , and at least one identifying feature that uniquely corresponds to the cutting element; a drive assembly comprising a reference pin , the drive assembly configured to receive at least a portion of the cutting tool assembly; a motor mechanically connected to the drive assembly; a control unit configured to activate the motor to move the cutting tool assembly such that the reference pin engages with the at least one identifying feature; characterized in that the system further comprises: a sensor system configured to determine positioning information related to the reference pin when the reference pin engages the at least one identifying feature; and a computing unit configured to: receive the positioning information from the sensor system, and identify the cutting element based upon the position information. a sensor system configured to determine positioning information related to the reference pin when the reference pin engages the at least one identifying feature; and a computing unit configured to: receive the positioning information from the sensor system, and identify the cutting element based upon the position information.
Method for manufacturing a reed for weaving looms, of the type comprising: a. a first step wherein individual blades (L) intended to form the reed dents are assembled in succession, side by side, parallel to a predefined lying plane and equally spaced apart, in a temporary support structure consisting of longitudinal rods , while interposing gauged spacing yarns (F) between each adjacent pair of blades (L); and b. a second step wherein the free ends of the blade assembly assembled in said temporary support structure are inserted and locked in support crosspieces (T); characterized in that said spacing yarns (F) interposed between each pair of said adjacent blades (L) comprise at least one length of spacing yarn (F), arranged against the lateral surface of said blades (L), having a wavy configuration in a plane parallel to said lying plane and bearing onto said temporary support structure. a. a first step wherein individual blades (L) intended to form the reed dents are assembled in succession, side by side, parallel to a predefined lying plane and equally spaced apart, in a temporary support structure consisting of longitudinal rods , while interposing gauged spacing yarns (F) between each adjacent pair of blades (L); and b. a second step wherein the free ends of the blade assembly assembled in said temporary support structure are inserted and locked in support crosspieces (T);
Switch system for rail-guided vehicle-based transport systems, comprising a turntable provided with a straight rail and a curved rail integral with said turntable , said turntable being rotatable about a rotating shaft , characterized in that the switch system only has one straight rail and one curved rail , with said rotating shaft being arranged such that it is shifted with respect to said straight rail and said curved rail , wherein said rotating shaft is arranged between the straight rail and the curved rail , characterized in that said rotating shaft is arranged equidistantly from respective midpoints of the straight rail and of the curved rail .
A process for measuring an amount of at least two micro RNA biomarkers associated with post-traumatic stress disorder (PTSD), for clinical evaluation, the process comprising: measuring in at least one biological sample obtained at a first time point from a human subject suffering from or suspected of suffering from PTSD levels of at least two micro RNA biomarkers associated with PTSD, wherein said at least two biomarkers are selected from the group consisting of miR-142-5p, miR-19b-3p, miR-221-3p, miR-223-3p, miR-322-3p, miR-324-3p, miR-421-3p miR-463-5p and miR-674-3p.
Method for using a plurality of elementary electrochemical components incorporated in an electronic circuit , said components comprising three layers, formed from the same three materials and having the same thickness, said three layers comprising respectively a first electrode , a second electrode , and an active area between said first and second electrodes, said components able to be used for information storage or for energy storage, said method comprising: - a step in which at least one component is used for information storage via the formation and the dissolution of a conductive path between said first and second electrodes in order to switch said component from a low resistance state (LRS) to a high resistance state (HRS), and reciprocally, by respectively applying a first and a second external voltage to said component; the method being characterized in that it comprises: - a step in which at least one other component is used for energy storage via the injection of ions coming from the first electrode and without forming a conductive path, in the active area in order to switch the component from a first high resistance state, associated with a first value of electromotive force (EMF1), to a second high resistance state, associated with a second value of electromotive force (EMF2), and reciprocally, by respectively applying a third external voltage different from the first external voltage and/or a first current and a fourth external voltage to said component and/or a second current. - a step in which at least one component is used for information storage via the formation and the dissolution of a conductive path between said first and second electrodes in order to switch said component from a low resistance state (LRS) to a high resistance state (HRS), and reciprocally, by respectively applying a first and a second external voltage to said component; - a step in which at least one other component is used for energy storage via the injection of ions coming from the first electrode and without forming a conductive path, in the active area in order to switch the component from a first high resistance state, associated with a first value of electromotive force (EMF1), to a second high resistance state, associated with a second value of electromotive force (EMF2), and reciprocally, by respectively applying a third external voltage different from the first external voltage and/or a first current and a fourth external voltage to said component and/or a second current.
A method comprising: delivering power, data, and cooling from a central network device to a plurality of remote communications devices over cables connecting the central network device to the remote communications devices , each of the cables carrying said power, data, and cooling, wherein the remote communications devices are powered by said power and cooled by said cooling delivered from the central network device , and wherein the cooling for each remote communication device is provided through a supply coolant tube and a return coolant tube forming a coolant loop between the central network device and the remote communication device ; monitoring temperature, pressure, and flow rate of the coolant loop delivering said cooling to the remote communications devices ; receiving at the central network device , power and thermal data from the remote communications devices based on monitoring of power and cooling at the remote communications devices ; and adjusting delivery of said cooling to at least one of the remote communications devices based on the monitoring of the coolant loop. delivering power, data, and cooling from a central network device to a plurality of remote communications devices over cables connecting the central network device to the remote communications devices , each of the cables carrying said power, data, and cooling, wherein the remote communications devices are powered by said power and cooled by said cooling delivered from the central network device , and wherein the cooling for each remote communication device is provided through a supply coolant tube and a return coolant tube forming a coolant loop between the central network device and the remote communication device ; monitoring temperature, pressure, and flow rate of the coolant loop delivering said cooling to the remote communications devices ; receiving at the central network device , power and thermal data from the remote communications devices based on monitoring of power and cooling at the remote communications devices ; and adjusting delivery of said cooling to at least one of the remote communications devices based on the monitoring of the coolant loop.
A method for determining existence of a foreign material on a surface of a fingerprint sensor, characterised in that the method comprises: obtaining a current capacitance value of the fingerprint sensor of a terminal; calculating a first difference between the current capacitance value and a preset capacitance reference value, wherein the preset capacitance reference value is obtained with no foreign material present on the surface of the fingerprint sensor before leaving the factory; and determining that the foreign material is present on the surface of the fingerprint sensor, when the first difference is within a preset foreign-material threshold range. obtaining a current capacitance value of the fingerprint sensor of a terminal; calculating a first difference between the current capacitance value and a preset capacitance reference value, wherein the preset capacitance reference value is obtained with no foreign material present on the surface of the fingerprint sensor before leaving the factory; and determining that the foreign material is present on the surface of the fingerprint sensor, when the first difference is within a preset foreign-material threshold range.
An apparatus for wireless communication, comprising: a memory; and at least one processor coupled to the memory and configured to: transmit (702; 802), to a first device (502; 602), capability information (510; 610) indicating that the apparatus is capable of operating as a precision time protocol, PTP, grand master clock; receive (704; 804), from the first device (502; 602), one or more PTP parameters (520; 620) based on the capability information (510; 610) indicating that the apparatus is capable of operating as a PTP grand master clock; generate (540; 640; 706; 808), based on the one or more PTP parameters (520; 620) received from the first device (502; 602), a first PTP message (550; 650) including time information; and transmit (708; 810) the first PTP message (550; 650) including the time information to one or more downstream devices (508; 608) in communication with the apparatus. a memory; and at least one processor coupled to the memory and configured to: transmit (702; 802), to a first device (502; 602), capability information (510; 610) indicating that the apparatus is capable of operating as a precision time protocol, PTP, grand master clock; receive (704; 804), from the first device (502; 602), one or more PTP parameters (520; 620) based on the capability information (510; 610) indicating that the apparatus is capable of operating as a PTP grand master clock; generate (540; 640; 706; 808), based on the one or more PTP parameters (520; 620) received from the first device (502; 602), a first PTP message (550; 650) including time information; and transmit (708; 810) the first PTP message (550; 650) including the time information to one or more downstream devices (508; 608) in communication with the apparatus. transmit (702; 802), to a first device (502; 602), capability information (510; 610) indicating that the apparatus is capable of operating as a precision time protocol, PTP, grand master clock; receive (704; 804), from the first device (502; 602), one or more PTP parameters (520; 620) based on the capability information (510; 610) indicating that the apparatus is capable of operating as a PTP grand master clock; generate (540; 640; 706; 808), based on the one or more PTP parameters (520; 620) received from the first device (502; 602), a first PTP message (550; 650) including time information; and transmit (708; 810) the first PTP message (550; 650) including the time information to one or more downstream devices (508; 608) in communication with the apparatus.
A wiring structure for multiple wiring slots connection to be installed at the bottom of a vehicle to protect a wire harness, the wiring structure comprising: a plurality of brackets , each having two end parts, and a gap being provided between the end parts of two brackets disposed adjacent to each other; at least one wire harness disposed inside the brackets and extending through the plurality of brackets; and a sleeve being flexible, provided on the outer periphery of the wire harness, and overlapped with the gap in an axial direction, characterized in that the end part of the bracket has a trapezoidal section along a center line of the bracket , and becomes wider as closer to an extremity of the end part. a plurality of brackets , each having two end parts, and a gap being provided between the end parts of two brackets disposed adjacent to each other; at least one wire harness disposed inside the brackets and extending through the plurality of brackets; and a sleeve being flexible, provided on the outer periphery of the wire harness, and overlapped with the gap in an axial direction, characterized in that the end part of the bracket has a trapezoidal section along a center line of the bracket , and becomes wider as closer to an extremity of the end part.
An apparatus comprising: a filter housing having an inner surface that forms an open interior into which can be inserted a plurality of filter cartridges, the inner surface having a plurality of vertically spaced registration surfaces suitable for receiving the plurality of filter cartridges and affixing the filter cartridges in a vertical filtering position, the filter housing also having a plurality of vertically spaced outlet ports in which at least one outlet port is opened and at least another outlet port is closed; at least one filter cartridge disposed within the filter housing, characterised in that the at least one filter cartridge has a registration surface rotated to engage the registration surface of the filter housing, the engagement of the at least one filter cartridge registration surface and the filter housing registration surface structured to discourage removal of the filter cartridge as well as seat the filter cartridge in place to form a fluid flow path of the filter housing; and a removable outlet port plug covering the at least another outlet port. a filter housing having an inner surface that forms an open interior into which can be inserted a plurality of filter cartridges, the inner surface having a plurality of vertically spaced registration surfaces suitable for receiving the plurality of filter cartridges and affixing the filter cartridges in a vertical filtering position, the filter housing also having a plurality of vertically spaced outlet ports in which at least one outlet port is opened and at least another outlet port is closed; at least one filter cartridge disposed within the filter housing, characterised in that the at least one filter cartridge has a registration surface rotated to engage the registration surface of the filter housing, the engagement of the at least one filter cartridge registration surface and the filter housing registration surface structured to discourage removal of the filter cartridge as well as seat the filter cartridge in place to form a fluid flow path of the filter housing; and a removable outlet port plug covering the at least another outlet port.
Device , in particular a sheeter, for forming an imbricated stream of underlapping sheets , in particular of paper or board sheets, having a transport device for transporting sheets, having an shingling device for underlapping the sheets in regions, with a braking device , following the shingling device in the transport direction (X) of the sheets , for braking shingled sheets , in particular by forming a braking gap for the passage of sheets brought together in a shingled manner, and with a transverse cutting device , upstream of the shingling device , for cutting a material strip into individual sheets , characterized in that a suction section is provided between the shingling device and the braking device for sucking and transporting a sheet trailing in the shingled stream into the braking device , a further suction section is provided between the cross-cutting device and the shingling device , and the pressure level in the region of the suction section between the shingling device and the braking device is lowered to a lesser extent than in the region of the further suction section .
Process for preparing a polyurethane polymer, comprising the step of: I) mixing a first reactant component comprising a polyisocyanate with a second reactant component comprising a compound having Zerewitinoff-active hydrogen atoms in a mixing vessel to obtain a reaction mixture , characterized in that the first reactant component and/or the second reactant component are contacted with a catalyst bed before they are mixed in the mixing vessel and/or the reaction mixture is contacted with a catalyst bed , wherein the catalyst bed contains a catalyst reversibly sorbed on a substrate, the catalyst catalyses the reaction of isocyanate groups with themselves or with Zerewitinoff-active compounds and the catalyst is released into the first component , second component or reaction mixture that is in contact with the catalyst bed , such that a reaction mixture containing the catalyst is obtained. I) mixing a first reactant component comprising a polyisocyanate with a second reactant component comprising a compound having Zerewitinoff-active hydrogen atoms in a mixing vessel to obtain a reaction mixture , the first reactant component and/or the second reactant component are contacted with a catalyst bed before they are mixed in the mixing vessel and/or the reaction mixture is contacted with a catalyst bed , wherein the catalyst bed contains a catalyst reversibly sorbed on a substrate, the catalyst catalyses the reaction of isocyanate groups with themselves or with Zerewitinoff-active compounds and the catalyst is released into the first component , second component or reaction mixture that is in contact with the catalyst bed , such that a reaction mixture containing the catalyst is obtained.
Fastening of a drive unit to a vehicle body comprising at least three vibration-damping elements , at least one additional spring and/or damping element for mounting the drive unit being arranged on the vehicle body , the additional spring and/or damping element being arranged between the drive unit and the vehicle body in such a way that its main direction of action runs substantially in the vehicle longitudinal direction (L), characterized in that the spring and/or damper effect of the at least one additional spring and/or damping element is parallel to the action of a transmission mount .