mhurhangee/patent-ind-claim-en huggingface dataset:
An infrared gas detector comprising: a source light ; one or more sensor (106 and 108) configured to receive at least a portion of the source light ; a gas chamber located between the source light and the one or more sensor (106 and 108); a filter glass located in an optical path between the source light and the one or more sensor (106 and 108) configured to filter one or more wavelengths from the source light , wherein: the filter glass comprises a thickness between 1 millimeter and 3 millimeters; the filter glass comprises one or more materials that contain hydroxyls in their molecular structure, the one or more materials comprising Fused Silica, the thickness and composition of the filter glass being operable to filter out wavelengths less than 2900 nm and greater than 4100 nm from light emitted by the source light , and the filter glass filters out the wavelengths less than 2900 nm and greater than 4100 nm from the source light that would be absorbed by water and by carbon dioxide along the optical path, and reduces the infrared detector's cross sensitivity to water and carbon dioxide. a source light ; one or more sensor (106 and 108) configured to receive at least a portion of the source light ; a gas chamber located between the source light and the one or more sensor (106 and 108); a filter glass located in an optical path between the source light and the one or more sensor (106 and 108) configured to filter one or more wavelengths from the source light , wherein: the filter glass comprises a thickness between 1 millimeter and 3 millimeters; the filter glass comprises one or more materials that contain hydroxyls in their molecular structure, the one or more materials comprising Fused Silica, the thickness and composition of the filter glass being operable to filter out wavelengths less than 2900 nm and greater than 4100 nm from light emitted by the source light , and the filter glass filters out the wavelengths less than 2900 nm and greater than 4100 nm from the source light that would be absorbed by water and by carbon dioxide along the optical path, and reduces the infrared detector's cross sensitivity to water and carbon dioxide. the filter glass comprises a thickness between 1 millimeter and 3 millimeters; the filter glass comprises one or more materials that contain hydroxyls in their molecular structure, the one or more materials comprising Fused Silica, the thickness and composition of the filter glass being operable to filter out wavelengths less than 2900 nm and greater than 4100 nm from light emitted by the source light , and the filter glass filters out the wavelengths less than 2900 nm and greater than 4100 nm from the source light that would be absorbed by water and by carbon dioxide along the optical path, and reduces the infrared detector's cross sensitivity to water and carbon dioxide.
Operating device for a handling device , having a gripping section and a coupling for a gripping device , at least a part of the coupling being located at or in the gripping section , so as to be rotatable about an axis of rotation , so that the coupling can assume different rotational positions, wherein a reading device for reading out an information carrier with coded information is located at the side of the gripping section facing the coupling , characterized in that the reading device is configured so as to read an information carrier of a gripping device coupled to the coupling regardless of the rotational position of the coupling .
Device for continuously treating a web substrate in a plasma enhanced process, the device comprising at least one treatment station including a process chamber, wherein at least one plasma treatment unit is allocated to the at least one treatment station which is designed to form a plasma zone within the process chamber for treating a surface of the web substrate , the device further comprises a transporting system configured to continuously transport the web substrate through the at least one treatment station , with an unwind roller and a rewind roller , wherein the transporting system defines a transporting path of the web substrate through the process chamber, wherein the plasma treatment unit comprises at least one extensive antenna and at least one radiofrequency (RF) generator ; wherein the transportation system in the process chamber defines a treatment path section for the web substrate , and wherein the treatment path section for the web substrate lies opposite to the at least one extensive antenna ; characterized in that the at least one radiofrequency (RF) generator is configured to excite said at least one extensive antenna to at least one of its resonant frequencies, wherein the extensive antenna comprises a plurality of interconnected elementary resonant meshes (M1, M2, M3), each mesh comprising at least two conductive legs and at least two capacitors , wherein the extensive antenna is arranged within the environment of the process chamber, wherein the plasma treatment unit comprises a separation surface which physically separates the at least one extensive antenna from the plasma zone .
A method performed by a base station of a wireless telecommunication system, the method comprising: detecting a demand for more wireless radio downlink resources over a licensed band; requesting a set of radio resource control, RRC, active user equipment, UEs , to perform a search for 802.11 beacon transmissions over an unlicensed band in their vicinity in response to detecting the demand, wherein the requesting comprises requesting measurement feedback from the set of RRC active UEs on unlicenced carriers; receiving, in response to the requesting, a measurement feedback from the set of RRC active UEs, the measurement feedback including at least measurements of the average power of a beacon received power over carrier frequencies within the unlicensed band and of the average traffic load; selecting , after receipt of the measurement feedback, a carrier with the lowest beacon receive power and/or the lowest traffic load as a secondary component carrier, SCC, of the unlicensed band based on the measurement feedback; and in response to selecting the SCC, starting to transmit Long-Term Evolution, LTE, frames onto the unlicensed band after synchronization of the transmissions over the SSC and a primary component carrier, PCC, operating over the licensed band. detecting a demand for more wireless radio downlink resources over a licensed band; requesting a set of radio resource control, RRC, active user equipment, UEs , to perform a search for 802.11 beacon transmissions over an unlicensed band in their vicinity in response to detecting the demand, wherein the requesting comprises requesting measurement feedback from the set of RRC active UEs on unlicenced carriers; receiving, in response to the requesting, a measurement feedback from the set of RRC active UEs, the measurement feedback including at least measurements of the average power of a beacon received power over carrier frequencies within the unlicensed band and of the average traffic load; selecting , after receipt of the measurement feedback, a carrier with the lowest beacon receive power and/or the lowest traffic load as a secondary component carrier, SCC, of the unlicensed band based on the measurement feedback; and in response to selecting the SCC, starting to transmit Long-Term Evolution, LTE, frames onto the unlicensed band after synchronization of the transmissions over the SSC and a primary component carrier, PCC, operating over the licensed band.
A light-emitting module comprising: a light-emitting element unit having outer lateral surfaces and a bottom surface, the light-emitting element unit comprising: a light-emitting element having a main light-emitting surface and lateral surfaces, a light-transmissive member covering the main light-emitting surface of the light-emitting element , and a first light-reflective member covering the lateral surfaces of the light-emitting element ; a light-transmissive light-guiding plate having: a first main surface serving as a light-emitting surface, and a second main surface opposite to the first main surface and forming a recess accommodating the light-emitting element unit , the recess having inner lateral surfaces and a bottom surface; a second light-reflective member covering the second main surface of the light-transmissive light-guiding plate and the light-emitting element unit ; and a light-transmissive bonding member disposed in contact with the inner lateral surfaces and the bottom surface of the recess , as well as the outer lateral surfaces of the light-emitting element unit and the second main surface of the light-transmissive light-guiding plate , wherein at least a portion of the first light-reflective member is located outside the recess in a sectional view, and is in contact with the light-transmissive bonding member . a light-emitting element having a main light-emitting surface and lateral surfaces, a light-transmissive member covering the main light-emitting surface of the light-emitting element , and a first light-reflective member covering the lateral surfaces of the light-emitting element ; a light-transmissive light-guiding plate having: a first main surface serving as a light-emitting surface, and a second main surface opposite to the first main surface and forming a recess accommodating the light-emitting element unit , the recess having inner lateral surfaces and a bottom surface; a first main surface serving as a light-emitting surface, and a second main surface opposite to the first main surface and forming a recess accommodating the light-emitting element unit , the recess having inner lateral surfaces and a bottom surface; a second light-reflective member covering the second main surface of the light-transmissive light-guiding plate and the light-emitting element unit ; and a light-transmissive bonding member disposed in contact with the inner lateral surfaces and the bottom surface of the recess , as well as the outer lateral surfaces of the light-emitting element unit and the second main surface of the light-transmissive light-guiding plate , wherein at least a portion of the first light-reflective member is located outside the recess in a sectional view, and is in contact with the light-transmissive bonding member .
A method for activating a secondary cell, applied to a terminal, the method comprising: receiving a reference signal activation signaling, wherein the reference signal activation signaling is used for activating a reference signal, and the reference signal is used for activation of the secondary cell; and receiving the reference signal based on the reference signal activation signaling, and activating the secondary cell, characterized in that a time domain length of the reference signal is indicated by a reference signal configuration signaling sent by a network device, wherein the time domain length of the reference signal is represented by a number of repeated transmissions of the reference signal, and a number of time domain positions occupied by the reference signal is four times the number of repeated transmissions. receiving a reference signal activation signaling, wherein the reference signal activation signaling is used for activating a reference signal, and the reference signal is used for activation of the secondary cell; and receiving the reference signal based on the reference signal activation signaling, and activating the secondary cell, characterized in that a time domain length of the reference signal is indicated by a reference signal configuration signaling sent by a network device, wherein the time domain length of the reference signal is represented by a number of repeated transmissions of the reference signal, and a number of time domain positions occupied by the reference signal is four times the number of repeated transmissions.
A vinyl silane compound represented by the following formula : wherein A independently represents a divalent hydrocarbon group having 1 to 6 carbon atoms; Y independently represents a substituted or unsubstituted monovalent hydrocarbon group having 1 to 12 carbon atoms.
A composition comprising (i) a recombinant adeno-associated virus (AAV) vector comprising an AAV capsid that encapsulates a nucleotide of interest, wherein the AAV capsid comprises a recombinant AAV capsid protein modified to comprise a heterologous epitope, wherein the recombinant AAV capsid protein is derived from an AAV capsid gene modified to express the heterologous epitope; (ii) a multispecific binding molecule comprising (a) an antibody paratope that specifically binds the heterologous epitope; and (b) a retargeting ligand that specifically binds a cell surface protein or marker; and optionally (iii) a pharmaceutically acceptable carrier, wherein the AAV capsid exhibits: - reduced to abolished tropism in the absence of the multispecific binding molecule; and - modified tropism, upon combination with the multispecific binding molecule, compared to a reference AAV capsid, wherein the reference AAV capsid comprises a reference AAV capsid protein that is identical to the recombinant AAV capsid protein but for the lack of the heterologous epitope. (i) a recombinant adeno-associated virus (AAV) vector comprising an AAV capsid that encapsulates a nucleotide of interest, wherein the AAV capsid comprises a recombinant AAV capsid protein modified to comprise a heterologous epitope, wherein the recombinant AAV capsid protein is derived from an AAV capsid gene modified to express the heterologous epitope; an AAV capsid that encapsulates a nucleotide of interest, wherein the AAV capsid comprises a recombinant AAV capsid protein modified to comprise a heterologous epitope, wherein the recombinant AAV capsid protein is derived from an AAV capsid gene modified to express the heterologous epitope; (ii) a multispecific binding molecule comprising (a) an antibody paratope that specifically binds the heterologous epitope; and (b) a retargeting ligand that specifically binds a cell surface protein or marker; and optionally (a) an antibody paratope that specifically binds the heterologous epitope; and (b) a retargeting ligand that specifically binds a cell surface protein or marker; and optionally (iii) a pharmaceutically acceptable carrier, wherein the AAV capsid exhibits: - reduced to abolished tropism in the absence of the multispecific binding molecule; and - modified tropism, upon combination with the multispecific binding molecule, compared to a reference AAV capsid, wherein the reference AAV capsid comprises a reference AAV capsid protein that is identical to the recombinant AAV capsid protein but for the lack of the heterologous epitope. - reduced to abolished tropism in the absence of the multispecific binding molecule; and - modified tropism, upon combination with the multispecific binding molecule, compared to a reference AAV capsid, wherein the reference AAV capsid comprises a reference AAV capsid protein that is identical to the recombinant AAV capsid protein but for the lack of the heterologous epitope.
A method for determining a predictive model of a pressure ratio P1/P2 for a bypass turbomachine of previously defined type including a primary air path (VP) and a secondary air path (VS) separated by an inter-path compartment , the P1 pressure corresponding to an air pressure inside said inter-path compartment , the P2 pressure corresponding to an air pressure in the secondary air path (VS), said method being implemented by a processing system including acquiring means as well as a processing device , and comprising: - a step (E10) of acquiring, by said acquiring means and on a test turbomachine in operation corresponding to the previously defined type, at respective measurement times, sets of measurements each including a P1 measurement, a P2 measurement, a measurement M of a Mach number of the test turbomachine, and a PCN12R measurement representing a low pressure rating of the test turbomachine, - a step (E20) of obtaining said sets of measurements by the processing device , - a step (E30) of supervised learning, by the processing device and on the basis of said sets of measurements obtained, of a predictive model of the ratio P1/P2 as a function of the M number and of the PCN12R rating considered as explanatory variables. - a step (E10) of acquiring, by said acquiring means and on a test turbomachine in operation corresponding to the previously defined type, at respective measurement times, sets of measurements each including a P1 measurement, a P2 measurement, a measurement M of a Mach number of the test turbomachine, and a PCN12R measurement representing a low pressure rating of the test turbomachine, - a step (E20) of obtaining said sets of measurements by the processing device , - a step (E30) of supervised learning, by the processing device and on the basis of said sets of measurements obtained, of a predictive model of the ratio P1/P2 as a function of the M number and of the PCN12R rating considered as explanatory variables.
A system for generating an astigmatism-corrected beam having an elliptical cross-section shape emitted from a low-level laser therapy device , the system having a laser diode for generating a first beam with an elliptical cross section having a low-divergence minor axis and a high-divergence major axis, characterized by an optical train of only two operative lenses being, a divergence cylindrical lens which increases a divergence of the low-divergence minor axis toward the divergence of the high-divergence major axis, the cylindrical lens thereby transmitting a second beam with a second elliptical cross section ; and a first collimating lens for receiving and collimating the second beam ; wherein the collimating lens has an elliptical shape and emits an emitted beam having an emitted beam elliptical cross section with a minor axis length and a major axis length, and wherein the ratio of the major axis length to the minor axis length is less than 2:1. characterized by an optical train of only two operative lenses being, a divergence cylindrical lens which increases a divergence of the low-divergence minor axis toward the divergence of the high-divergence major axis, the cylindrical lens thereby transmitting a second beam with a second elliptical cross section ; and a first collimating lens for receiving and collimating the second beam ; wherein the collimating lens has an elliptical shape and emits an emitted beam having an emitted beam elliptical cross section with a minor axis length and a major axis length, and wherein the ratio of the major axis length to the minor axis length is less than 2:1.
An armature coil comprising coil conductors (4a-4h, 5a-5d), wherein the coil conductors (4a-4h, 5a-5d) are inserted in a plurality of slots of a stator core , wherein the plurality of slots each having a cross-section perpendicular to the axis of the stator core formed in a trapezoidal shape through which the coil conductors (4a-4h, 5a-5d) pass, are annularly arranged in the stator core and, for each slot of the plurality of slots , a plurality of said coil conductors (4a-4h, 5a-5d) in a slot pass through the inside of said slot in line, wherein, the axial cross-section of the plurality of said coil conductors (4a-4h, 5a-5d) in a slot is formed in a substantially trapezoidal shape which gets narrower toward the radially inner side of the stator core and the cross-sectional areas of the plurality of said coil conductors (4a-4h, 5a-5d) in a slot are each substantially the same and the axial cross-section of the plurality of said coil conductors (4a-4h, 5a-5d) in a slot is formed narrower as said coil conductor (4a-4h, 5a-5d) is arranged toward the radially inner side of the stator core ; and for each pair of adjacent coil conductors (4a-4h, 5a-5d), one coil conductor (4a-4h, 5a-5d) of the armature coil is formed in a convex shape at one radial end and another coil conductor (4a-4h,5a-5d) of the armature coil , which firmly attaches to the one coil conductor (4a-4h, 5a-5d), is formed in a concave shape at the other radial end along the convex shape, characterized in that the direction of the convex shape of all the coil conductors in one and the same slot is the same.
A power factor correction circuit , comprising - an input connection for receiving an input voltage (V in ), - an inductor coupled with the input connection , - a controllable switch element coupled with the inductor , in order to optionally charge and to discharge the inductor by closing and opening the switch element , - an output connection for the output of an output voltage (V out ), and - a control unit for controlling the switch element , wherein the control unit is designed in such a manner that during a discharging of the inductor it detects a decrease in a current (I L ) through the inductor to a predetermined current limit value and dependent thereon it activates the switch element to start a new charging and discharging process, and wherein the control unit is designed in such a manner that in the event that it detects no decrease in the current (I L ) through the inductor to the current limit value, it activates the switch element at least after expiration of a certain restart time interval (Trestart) to start a new charging and discharging process, characterized in that the control unit is designed in such a manner that it sets the restart time interval (Trestart) variably and depending on an operating mode of the power factor correction circuit . - an input connection for receiving an input voltage (V in ), - an inductor coupled with the input connection , - a controllable switch element coupled with the inductor , in order to optionally charge and to discharge the inductor by closing and opening the switch element , - an output connection for the output of an output voltage (V out ), and - a control unit for controlling the switch element , wherein the control unit is designed in such a manner that during a discharging of the inductor it detects a decrease in a current (I L ) through the inductor to a predetermined current limit value and dependent thereon it activates the switch element to start a new charging and discharging process, and wherein the control unit is designed in such a manner that in the event that it detects no decrease in the current (I L ) through the inductor to the current limit value, it activates the switch element at least after expiration of a certain restart time interval (Trestart) to start a new charging and discharging process, characterized in that the control unit is designed in such a manner that it sets the restart time interval (Trestart) variably and depending on an operating mode of the power factor correction circuit .