mhurhangee/patent-ind-claim-en huggingface dataset:
Method of fabricating a decoration provided with at least one attachment including the following steps: a) forming an envelope of material the external surface (S E ) of which forms the visible embossed part of the decoration , said step comprising the following phases: a1) forming an imprint of said decoration in a substrate ; a2) covering said imprint with a layer of material . b) forming said at least one attachment; c) fastening said at least one attachment directly against the internal surface (S I ) of the envelope of the decoration formed during step a) before filling the volume of the cavity defined by the envelope. a) forming an envelope of material the external surface (S E ) of which forms the visible embossed part of the decoration , said step comprising the following phases: a1) forming an imprint of said decoration in a substrate ; a2) covering said imprint with a layer of material . a1) forming an imprint of said decoration in a substrate ; a2) covering said imprint with a layer of material . b) forming said at least one attachment; c) fastening said at least one attachment directly against the internal surface (S I ) of the envelope of the decoration formed during step a) before filling the volume of the cavity defined by the envelope.
A nacelle for a turbomachine, the nacelle comprising an annular inner wall about a longitudinal axis (X) of the nacelle, the annular inner wall being intended to surround at least partly a primary cowl of the turbomachine, such that the annular inner wall of the nacelle forms with the primary cowl a secondary duct of the turbomachine, the annular inner wall delimiting the exterior of the secondary duct, the nacelle further comprising an annular outer wall surrounding the annular inner wall , the annular outer wall being configured to be in contact with the exterior environment of the nacelle, the annular inner wall comprising a first acoustically porous part (Z1), the nacelle being characterized in that the annular outer wall comprises a second acoustically porous part (Z2), the two acoustically porous parts facing each other to allow the passage through the annular inner wall , then through the annular outer wall of acoustic waves emitted by the turbomachine received in the nacelle, and their discharge outside the nacelle. the nacelle further comprising an annular outer wall surrounding the annular inner wall , the annular outer wall being configured to be in contact with the exterior environment of the nacelle, the annular inner wall comprising a first acoustically porous part (Z1), the nacelle being characterized in that the annular outer wall comprises a second acoustically porous part (Z2), the two acoustically porous parts facing each other to allow the passage through the annular inner wall , then through the annular outer wall of acoustic waves emitted by the turbomachine received in the nacelle, and their discharge outside the nacelle.
A spectropolarimeter comprising: a retarder having a geometrically changing fast axis, wherein the fast axis direction changes along a polarimetric dimension; a polarization analyzer; and a spectrographic optical platform comprising: a slit in a spatial dimension same as the polarimetric dimension of the retarder; a collimator; a dispersing element for dispersing spectral components of light received from the collimator along a spectral dimension that is perpendicular to the spatial dimension of the slit; a focusing optic; and a two-dimensional detector array. a retarder having a geometrically changing fast axis, wherein the fast axis direction changes along a polarimetric dimension; a polarization analyzer; and a spectrographic optical platform comprising: a slit in a spatial dimension same as the polarimetric dimension of the retarder; a collimator; a dispersing element for dispersing spectral components of light received from the collimator along a spectral dimension that is perpendicular to the spatial dimension of the slit; a focusing optic; and a two-dimensional detector array. a slit in a spatial dimension same as the polarimetric dimension of the retarder; a collimator; a dispersing element for dispersing spectral components of light received from the collimator along a spectral dimension that is perpendicular to the spatial dimension of the slit; a focusing optic; and a two-dimensional detector array.
A light-emitting module comprising: a first mounting board having a first surface and a second surface opposite to the first surface, the first mounting board having a recess on the first surface, the recess having a bottom surface , the first mounting board having an opening passing through the first mounting board from the bottom surface to the second surface ; a second mounting board having a mounting surface and a light-emitting element surface opposite to the mounting surface and provided in the recess such that the light-emitting element surface faces the bottom surface of the recess ; a light-emitting element provided on the light-emitting element surface of the second mounting board and configured to emit light through the opening ; characterized in that it comprises an elastic cushion provided between the bottom surface of the recess and the light-emitting element surface of second mounting board , the second mounting board projecting from the first surface of the first mounting board when a force pressing the second mounting board toward the bottom surface of the recess is not applied. a first mounting board having a first surface and a second surface opposite to the first surface, the first mounting board having a recess on the first surface, the recess having a bottom surface , the first mounting board having an opening passing through the first mounting board from the bottom surface to the second surface ; a second mounting board having a mounting surface and a light-emitting element surface opposite to the mounting surface and provided in the recess such that the light-emitting element surface faces the bottom surface of the recess ; a light-emitting element provided on the light-emitting element surface of the second mounting board and configured to emit light through the opening ; characterized in that it comprises an elastic cushion provided between the bottom surface of the recess and the light-emitting element surface of second mounting board , the second mounting board projecting from the first surface of the first mounting board when a force pressing the second mounting board toward the bottom surface of the recess is not applied.
A device for preventing NFC card destruction during wireless charging operations, the device comprising: a magnetic field detection circuit , which is configured to measure an intensity of a magnetic field (H) generated by a wireless charging system, a NFC-card detection circuit , which is configured to detect a presence of a NFC card; a charging control circuit , which is configured to limit a transmitted power of the wireless charging system during wireless charging operations based on a maximum permitted field, wherein the maximum permitted field is related to the detected presence of the NFC card, characterized by a separate wire loop placed above a charging coil of the wireless charging system, the separate wire loop to be used only for field sensing. a magnetic field detection circuit , which is configured to measure an intensity of a magnetic field (H) generated by a wireless charging system, a NFC-card detection circuit , which is configured to detect a presence of a NFC card; a charging control circuit , which is configured to limit a transmitted power of the wireless charging system during wireless charging operations based on a maximum permitted field, wherein the maximum permitted field is related to the detected presence of the NFC card,
A solar tracking system (10; 200), comprising: a solar array ; a plurality of support beams configured to support the solar array ; a torque tube coupled to the plurality of support beams ; a base configured to rotatably support the torque tube ; and an articulation system configured to rotate the torque tube relative to the base , the articulation system comprising: a first helical tube coupled to the torque tube ; a first helical tube support (120; 130) disposed on the base and configured to slidably support the first helical tube ; and a gearbox in mechanical communication with the first helical tube , characterized in that actuation of the gearbox causes the first helical tube and the torque tube coupled to the first helical tube to translate along their longitudinal axes, wherein the first helical tube is caused to translate within the first helical tube support (120; 130), and wherein the first helical tube support (120; 130) is configured to rotate the first helical tube and the torque tube coupled to the first helical tube as the first helical tube is translated therein to cause a corresponding rotation of the solar array . a solar array ; a plurality of support beams configured to support the solar array ; a torque tube coupled to the plurality of support beams ; a base configured to rotatably support the torque tube ; and an articulation system configured to rotate the torque tube relative to the base , the articulation system comprising: a first helical tube coupled to the torque tube ; a first helical tube support (120; 130) disposed on the base and configured to slidably support the first helical tube ; and a gearbox in mechanical communication with the first helical tube , a first helical tube coupled to the torque tube ; a first helical tube support (120; 130) disposed on the base and configured to slidably support the first helical tube ; and a gearbox in mechanical communication with the first helical tube , characterized in that actuation of the gearbox causes the first helical tube and the torque tube coupled to the first helical tube to translate along their longitudinal axes, wherein the first helical tube is caused to translate within the first helical tube support (120; 130), and wherein the first helical tube support (120; 130) is configured to rotate the first helical tube and the torque tube coupled to the first helical tube as the first helical tube is translated therein to cause a corresponding rotation of the solar array .
A polypeptide comprising an I-OnuI homing endonuclease (HE) variant that cleaves a target site in the human program cell death 1 (PD-1) gene, wherein the I-OnuI HE variant comprises an amino acid sequence at least 95% identical to the amino acid sequence set forth in any one of SEQ ID NOs: 60-63.
A method performed by a wireless device in a wireless communication system, the method comprising: identifying (S910) a coverage enhancement, CE, level of the wireless device on a frequency via which a multimedia broadcast multicast service, MBMS, service of interest is provided; receiving (S920) information for a CE level of the MBMS service supported by a network; and being characterised by transmitting (S940), to the network, information for the CE level of the wireless device or a number of repetitions required for the wireless device indicated by the CE level of the wireless device based on that: the CE level of the MBMS service is lower than the CE level of the wireless device; and the frequency via which the MBMS service is provided is different from a current serving frequency for the wireless device. identifying (S910) a coverage enhancement, CE, level of the wireless device on a frequency via which a multimedia broadcast multicast service, MBMS, service of interest is provided; receiving (S920) information for a CE level of the MBMS service supported by a network; and being characterised by transmitting (S940), to the network, information for the CE level of the wireless device or a number of repetitions required for the wireless device indicated by the CE level of the wireless device based on that: the CE level of the MBMS service is lower than the CE level of the wireless device; and the frequency via which the MBMS service is provided is different from a current serving frequency for the wireless device. the CE level of the MBMS service is lower than the CE level of the wireless device; and the frequency via which the MBMS service is provided is different from a current serving frequency for the wireless device.
Arrangement for validating a function of a sensor unit of a rail vehicle for object localization, having: - a test railway line , - a test object on the test railway line , comprising a first self-localisation unit for determining a reference position (RP T ) of the test object , - the rail vehicle , comprising: - a sensor unit for detecting a relative position (RLP) of the test object with respect to the sensor unit , - a second self-localisation unit for determining an ego position (EP) of the rail vehicle , - a position determination unit for determining an absolute position (AP) of the test object on the basis of the detected relative position (RLP) of the test object with respect to the sensor unit and the determined ego position (EP) of the rail vehicle , - a validation unit for determining a deviation (AW) of the determined absolute position (AP) of the test object from the reference position (RP T ) of the test object . - a test railway line , - a test object on the test railway line , comprising a first self-localisation unit for determining a reference position (RP T ) of the test object , - the rail vehicle , comprising: - a sensor unit for detecting a relative position (RLP) of the test object with respect to the sensor unit , - a second self-localisation unit for determining an ego position (EP) of the rail vehicle , - a position determination unit for determining an absolute position (AP) of the test object on the basis of the detected relative position (RLP) of the test object with respect to the sensor unit and the determined ego position (EP) of the rail vehicle , - a sensor unit for detecting a relative position (RLP) of the test object with respect to the sensor unit , - a second self-localisation unit for determining an ego position (EP) of the rail vehicle , - a position determination unit for determining an absolute position (AP) of the test object on the basis of the detected relative position (RLP) of the test object with respect to the sensor unit and the determined ego position (EP) of the rail vehicle , - a validation unit for determining a deviation (AW) of the determined absolute position (AP) of the test object from the reference position (RP T ) of the test object .
Device for for fixation of bone fragments at proximal thigh-bone or femoral fractures, said device comprising a locking plate for fixation on the outside of an outer bone fragment , said locking plate having a distal portion with at least one first hole , which extends through the locking plate, for a distal fixing means and a proximal portion with a second hole , which extends through the locking plate, for a proximal fixing means , at least one distal fixing means which is configured for insertion and fixation of the fixing means in said at least one first hole in the distal portion of the locking plate and fixation of the fixing means in the outer bone fragment, a proximal fixing means which is configured with a first fixing portion for fixation of the fixing means in an inner bone fragment , a second fixing portion for insertion of the fixing means in said second hole in the proximal portion of the locking plate for connection of the fixation means to the locking plate for primary compression of the outer and inner bone fragments , and a middle portion which is situated between the first and second fixing portions and configured to extend through the outer bone fragment and to permit, during secondary compression of the outer and inner bone fragments, displacement of the outer bone fragment and the proximal fixing means relative to each other, whereby the connection of the fixing means to the locking plate for achieving primary compression ceases, and a rotary-preventing and load-carrying means , wherein the locking plate is configured also with a third hole which is located between said at least one first hole in the distal portion of the locking plate and said second hole in the proximal portion of the locking plate and which extends through the locking plate at an angle, seen in the cross direction of the locking plate, relative to said second hole in the locking plate , characterised in that the rotary-preventing and load-carrying means is configured for insertion and fixation in said third hole in the locking plate and engagement distally in a longitudinal groove in the proximal fixing means for preventing rotation of the proximal fixing means but permitting displacement thereof in its longitudinal direction relative to the rotary-preventing and load-carrying means during secondary compression of the outer and inner bone fragments , and by means of said distal engagement of the proximal fixing means facilitate for the proximal fixing means to carry loading forces acting on the inner bone fragment .
Diazepam for use in the treatment of seizures, wherein the diazepam is orally administered with a multimodal delivery profile, wherein the diazepam is delivered from a mucoadhesive matrix including a permeation enhancer, wherein permeation of at least a portion of the diazepam through a mucosal tissue is promoted, and wherein a dose of diazepam is adjusted to compensate for a food effect by increasing the dose to offset the food effect such that a subject achieves a safe and efficacious dose in a fed state. wherein the diazepam is delivered from a mucoadhesive matrix including a permeation enhancer, wherein permeation of at least a portion of the diazepam through a mucosal tissue is promoted, and wherein a dose of diazepam is adjusted to compensate for a food effect by increasing the dose to offset the food effect such that a subject achieves a safe and efficacious dose in a fed state.
A secondary battery lamination device using infrared lamps comprising: a laminate moving portion configured to move a laminate in a first direction, the laminate formed by sequentially stacking a positive electrode , a separator , and a negative electrode ; an infrared LED (Light-Emitting Diode) heat source portion positioned on a first side or the first side and a second side of the laminate moving portion , the infrared LED heat source portion configured to supply infrared light to the laminate to bond the positive electrode , the separator , and the negative electrode to one another; and a pressurizing portion configured to apply a pressure to the laminate , the pressurizing portion being disposed downstream of the infrared LED heat source portion in the first direction, wherein the infrared LED heat source portion comprises a first infrared LED heat source portion positioned on the first side of the laminate moving portion and a second infrared LED heat source portion positioned on the second side of the laminate moving portion , wherein the first infrared LED heat source portion and the second infrared LED heat source portion each comprise a respective plurality of infrared LED lamps (L) arranged symmetrically based on a centerline of the laminate moving portion , and wherein the infrared LED lamps (L) of each of the first and second LED heat source portions are operated individually. a laminate moving portion configured to move a laminate in a first direction, the laminate formed by sequentially stacking a positive electrode , a separator , and a negative electrode ; an infrared LED (Light-Emitting Diode) heat source portion positioned on a first side or the first side and a second side of the laminate moving portion , the infrared LED heat source portion configured to supply infrared light to the laminate to bond the positive electrode , the separator , and the negative electrode to one another; and a pressurizing portion configured to apply a pressure to the laminate , the pressurizing portion being disposed downstream of the infrared LED heat source portion in the first direction, wherein the infrared LED heat source portion comprises a first infrared LED heat source portion positioned on the first side of the laminate moving portion and a second infrared LED heat source portion positioned on the second side of the laminate moving portion , wherein the first infrared LED heat source portion and the second infrared LED heat source portion each comprise a respective plurality of infrared LED lamps (L) arranged symmetrically based on a centerline of the laminate moving portion , and wherein the infrared LED lamps (L) of each of the first and second LED heat source portions are operated individually.
A compound of formula (I) wherein R 1 represents a hydrogen atom, a cyclopropyl group, or a pyrazole ring which pyrazole is optionally substituted by one or two methyl groups; or a pharmaceutically acceptable salt thereof.
A molecular ink comprising: a silver carboxylate present in the ink in an amount to provide a silver loading of 23 wt% or more in the ink based on total weight of the ink; 5 wt% to 50 wt% based on total weight of the ink of an organic amine, the organic amine comprising an alkylamine, a hydroxyalkylamine or a cyclic amine; and 0.1 wt% to 10 wt% based on total weight of the ink of a polymeric binder comprising a polyester, polyimide, polyether imide or any mixture thereof having functional groups which are polar groups capable of participating in hydrogen bonding that render the polymeric binder compatible with the organic amine.
A sensing device for a high voltage transmission line , comprising a high voltage insert , a low voltage insert and an insulating member , the high voltage insert and the low voltage insert being made in a conductive material, the insulating member being arranged between the high voltage insert and the low voltage insert to provide electrical insulation between the high voltage insert and the low voltage insert , the sensing device further comprises a transponder and at least one sensor , the transponder being connected to the high voltage insert , and each sensor being connected to the transponder , each sensor being configured to transmit, to the transponder , sensing information relative to a predetermined monitored property of the transmission line , the transponder being configured to transmit to the high voltage insert a sensing signal comprising the sensing information, the high voltage insert being configured to radiate a sensing electromagnetic wave depending on the sensing signal, the low voltage insert being configured to receive the radiated sensing electromagnetic wave and to provide an output signal representative of the sensing signal at an output of the low voltage insert , characterized in that the sensing device comprises an insulating support configured to mechanically support a high voltage member of the high voltage transmission line , whereas the high voltage insert , the low voltage insert and the insulating member are comprised by the insulating support .