mhurhangee/patent-ind-claim-en huggingface dataset:
An additively manufactured part comprising: an additively manufactured nut-retaining cradle integral with the additively manufactured part, said integral nut-retaining cradle comprising an integral cradle bed and at least one integral cradle wall ( , said integral cradle wall extending substantially perpendicularly from the integral cradle bed and said integral cradle wall extending from the integral cradle bed to a predetermined distance; and wherein the integral cradle wall comprises at least one integral cradle wall nut-retaining feature ( (65d") (66d") (66e") (66f"), said integral cradle wall nut-retaining feature configured to receive a retainer (69c") (69d"), (69e") (69f") said retainer configured to engage the integral cradle wall nut-retaining feature, said integral cradle wall nut-retaining feature further configured to establish a restricted range of movement for a nut retained in the nut-retaining cradle along at least one axis, wherein the integral cradle wall nut-retaining feature comprises at least one recess (65d") (66d") in at least one integral cradle wall . an additively manufactured nut-retaining cradle integral with the additively manufactured part, said integral nut-retaining cradle comprising an integral cradle bed and at least one integral cradle wall ( , said integral cradle wall extending substantially perpendicularly from the integral cradle bed and said integral cradle wall extending from the integral cradle bed to a predetermined distance; and wherein the integral cradle wall comprises at least one integral cradle wall nut-retaining feature ( (65d") (66d") (66e") (66f"), said integral cradle wall nut-retaining feature configured to receive a retainer (69c") (69d"), (69e") (69f") said retainer configured to engage the integral cradle wall nut-retaining feature, said integral cradle wall nut-retaining feature further configured to establish a restricted range of movement for a nut retained in the nut-retaining cradle along at least one axis, wherein the integral cradle wall nut-retaining feature comprises at least one recess (65d") (66d") in at least one integral cradle wall .
An optical modulator comprising: an emitter layer with N-type doping having a first bandgap energy; a base layer with P-type doping having a second bandgap energy; and a sub-emitter layer disposed between the emitter layer and the base layer , wherein the sub-emitter layer has a third bandgap energy that is less than both the first bandgap energy and the second bandgap energy; a collector layer having N-type doping; and an undoped layer between the collector layer and the base layer , wherein the undoped layer is configured to have light propagate through the undoped region for modulation thereof. an emitter layer with N-type doping having a first bandgap energy; a base layer with P-type doping having a second bandgap energy; and a sub-emitter layer disposed between the emitter layer and the base layer , wherein the sub-emitter layer has a third bandgap energy that is less than both the first bandgap energy and the second bandgap energy; a collector layer having N-type doping; and an undoped layer between the collector layer and the base layer , wherein the undoped layer is configured to have light propagate through the undoped region for modulation thereof.
A molding die comprising a plurality of die portions that form a cavity in which a molded body is molded, the molding die comprising: first temperature adjusting means disposed in the vicinity of a cavity surface , the first temperature adjusting means being capable of at least cooling the cavity surface ; and second temperature adjusting means disposed on a side of the first temperature adjusting means opposite from the cavity surface , the second temperature adjusting means being capable of at least heating the cavity surface , wherein a distance L0 from the cavity surface to the first temperature adjusting means and a distance L1 from the cavity surface to a surface opposite from the cavity surface satisfy the following relationship: L 1 / L 0 > 3 , the die being characterized in that each die portion comprises a first section including the first temperature adjusting means , and a second section including the second temperature adjusting means , wherein a volume V(I) of the first section of the die portion and a volume V0 of the die portion satisfy the following relationship: 1.3 < V 0 / V I < 3 , and wherein a material forming the first section has a thermal conductivity C(I) (J/s·m·K) that is 3.5 times or more a thermal conductivity C(II) (J/s·m·K) of a material forming the second section , and/or the material forming the first section has a thermal diffusivity (m2/s) that is 3.5 times or more a thermal diffusivity (m2/s) of the material forming the second section . first temperature adjusting means disposed in the vicinity of a cavity surface , the first temperature adjusting means being capable of at least cooling the cavity surface ; and second temperature adjusting means disposed on a side of the first temperature adjusting means opposite from the cavity surface , the second temperature adjusting means being capable of at least heating the cavity surface , wherein a distance L0 from the cavity surface to the first temperature adjusting means and a distance L1 from the cavity surface to a surface opposite from the cavity surface satisfy the following relationship: L 1 / L 0 > 3 , the die being characterized in that each die portion comprises a first section including the first temperature adjusting means , and a second section including the second temperature adjusting means , wherein a volume V(I) of the first section of the die portion and a volume V0 of the die portion satisfy the following relationship: 1.3 < V 0 / V I < 3 , and wherein a material forming the first section has a thermal conductivity C(I) (J/s·m·K) that is 3.5 times or more a thermal conductivity C(II) (J/s·m·K) of a material forming the second section , and/or the material forming the first section has a thermal diffusivity (m2/s) that is 3.5 times or more a thermal diffusivity (m2/s) of the material forming the second section .
A method for distinguishing one or more components of a signal, wherein the signal is an acoustic signal, comprising steps: acquiring the signal from an environment with an acoustic sensor; processing the signal to estimate a set of analysis features, wherein each analysis feature defines an element of the signal, and has feature values that represent parts of the signal; processing the signal to estimate input features of the signal; processing the input features using a deep neural network (DNN) to assign an associative descriptor to each element of the signal, wherein a degree of similarity between the associative descriptors of different elements is related to a degree to which the parts of the signal represented by the elements belong to a single component of the signal, by minimizing an objective function C ( θ ) = VV T − YY T F 2 where V is a K-dimensional embedding in the form of the associative descriptor and Y is a reference label indicator; processing the similarities between associative descriptors to estimate correspondences between the elements of the signal and one or more components in the signal; and processing the signal using the correspondences to distinguish the parts of the one or more components of the signal, wherein the steps are performed in a processor. acquiring the signal from an environment with an acoustic sensor; processing the signal to estimate a set of analysis features, wherein each analysis feature defines an element of the signal, and has feature values that represent parts of the signal; processing the signal to estimate input features of the signal; processing the input features using a deep neural network (DNN) to assign an associative descriptor to each element of the signal, wherein a degree of similarity between the associative descriptors of different elements is related to a degree to which the parts of the signal represented by the elements belong to a single component of the signal, by minimizing an objective function C ( θ ) = VV T − YY T F 2 where V is a K-dimensional embedding in the form of the associative descriptor and Y is a reference label indicator; processing the similarities between associative descriptors to estimate correspondences between the elements of the signal and one or more components in the signal; and processing the signal using the correspondences to distinguish the parts of the one or more components of the signal, wherein the steps are performed in a processor.
A vibration suppression device for a railway vehicle, the device comprising: an actuator adapted to be disposed between a bogie truck and a vehicle body of the railway vehicle, the actuator adjusting a vibration of the railway vehicle by extension/retraction motion thereof; and a controller for controlling the extension/retraction motion of the actuator , wherein the controller is configured for determining the total amount of extension/retraction displacements of the actuator within a predetermined period of time during the running of the railway vehicle, and for comparing the total amount of extension/retraction displacements to a first threshold value to determine if the actuator has seized. an actuator adapted to be disposed between a bogie truck and a vehicle body of the railway vehicle, the actuator adjusting a vibration of the railway vehicle by extension/retraction motion thereof; and a controller for controlling the extension/retraction motion of the actuator , wherein the controller is configured for determining the total amount of extension/retraction displacements of the actuator within a predetermined period of time during the running of the railway vehicle, and for comparing the total amount of extension/retraction displacements to a first threshold value to determine if the actuator has seized.
Illumination system for an optical arrangement, in particular for an EUV lithography apparatus , comprising: at least one optical element , which has at least one optical surface, preferably a plurality of optical surfaces (13a-d, 14a-d), on which a coating which reflects the illumination radiation from a light source is applied, and an actuator device for aligning the at least one optical surface (13a-d, 14a-d) in at least two angular positions (α 1 , α 2 ), characterized in that the reflecting coating either has a thickness (d OPT1 ) at which a mean value (1/2 (R 1 + R 2 )) formed from a thickness-dependent reflectivity (R 1 , R 2 ) of the coating at the at least two angular positions (α 1 , α 2 ) is maximized or in that the reflecting coating has a thickness (d OPT2 ) at which a maximum change (max(ΔR 1 /R 1 , ΔR 2 /R 2 )) in the reflectivity (R 1 , R 2 ) caused by a thickness tolerance (Δd/d) of the coating is minimized at the respective angular positions (α 1 , α 2 ). at least one optical element , which has at least one optical surface, preferably a plurality of optical surfaces (13a-d, 14a-d), on which a coating which reflects the illumination radiation from a light source is applied, and an actuator device for aligning the at least one optical surface (13a-d, 14a-d) in at least two angular positions (α 1 , α 2 ), characterized in that the reflecting coating either has a thickness (d OPT1 ) at which a mean value (1/2 (R 1 + R 2 )) formed from a thickness-dependent reflectivity (R 1 , R 2 ) of the coating at the at least two angular positions (α 1 , α 2 ) is maximized or in that the reflecting coating has a thickness (d OPT2 ) at which a maximum change (max(ΔR 1 /R 1 , ΔR 2 /R 2 )) in the reflectivity (R 1 , R 2 ) caused by a thickness tolerance (Δd/d) of the coating is minimized at the respective angular positions (α 1 , α 2 ).
A method for indicating access pass/violation feedback to a system on chip, SOC, as part of a read/write transaction sequence of a memory device, comprising: receiving an unlock password from the SOC; determining whether the received unlock password matches a password within a set of acceptable passwords stored in the memory device; and unlocking memory device gate logic to allow a memory access control to receive a configuration message in response to determining that the received unlock password matches a password within the set of acceptable passwords; receiving the configuration message from the SOC for configuring the memory access control of the memory device; configuring the memory access control based on the configuration message; receiving an access request message from the SOC requesting access to a memory base address and a memory access range of a memory cell array of the memory device, wherein the access request message includes a read/write operation; comparing the access request message with the configured memory access control to determine whether the access request message is allowable; and performing the read/write operation in response to determining that the access request message is allowable. receiving an unlock password from the SOC; determining whether the received unlock password matches a password within a set of acceptable passwords stored in the memory device; and unlocking memory device gate logic to allow a memory access control to receive a configuration message in response to determining that the received unlock password matches a password within the set of acceptable passwords; receiving the configuration message from the SOC for configuring the memory access control of the memory device; configuring the memory access control based on the configuration message; receiving an access request message from the SOC requesting access to a memory base address and a memory access range of a memory cell array of the memory device, wherein the access request message includes a read/write operation; comparing the access request message with the configured memory access control to determine whether the access request message is allowable; and performing the read/write operation in response to determining that the access request message is allowable.
A sensor unit comprising: at least three kinesthetic-sense sensors arranged along a plane, each of the kinesthetic-sense sensors comprising a first force receiving part configured to receive an external force; a rigid connecting plate comprising a second force receiving part configured to receive an external force, the rigid connecting plate being configured to transfer the external force received by the second force receiving part to each of the first force receiving parts and connecting the first force receiving parts with each other; and an output unit configured to output signals corresponding to a pressing force in an orthogonal-axis direction orthogonal to the plane and pressing forces in two axial directions parallel to the plane, respectively, the pressing forces being components of divided forces of the external force received by the second force receiving part, received by the respective first force receiving parts through the connecting plate, wherein the second force receiving part is vertically disposed in a columnar shape at the center of the main surface of the rigid connecting plate on a side on which the sensor unit receives an external force, and characterized in that each of the first force receiving parts is connected to the rigid connecting plate by a separate flexible connecting part so that a relative angle between the rigid connecting plate and the first force receiving part can be changed. at least three kinesthetic-sense sensors arranged along a plane, each of the kinesthetic-sense sensors comprising a first force receiving part configured to receive an external force; a rigid connecting plate comprising a second force receiving part configured to receive an external force, the rigid connecting plate being configured to transfer the external force received by the second force receiving part to each of the first force receiving parts and connecting the first force receiving parts with each other; and an output unit configured to output signals corresponding to a pressing force in an orthogonal-axis direction orthogonal to the plane and pressing forces in two axial directions parallel to the plane, respectively, the pressing forces being components of divided forces of the external force received by the second force receiving part, received by the respective first force receiving parts through the connecting plate, wherein the second force receiving part is vertically disposed in a columnar shape at the center of the main surface of the rigid connecting plate on a side on which the sensor unit receives an external force, and characterized in that each of the first force receiving parts is connected to the rigid connecting plate by a separate flexible connecting part so that a relative angle between the rigid connecting plate and the first force receiving part can be changed.
A print cartridge comprising: a cartridge housing comprising a container body and a lid that encloses the container body , the lid comprising a bottom surface and a top surface ; a fluid reservoir disposed within the container body that receives and contains fluid; a fluid ejector chip disposed on the cartridge housing and comprising a plurality of heating elements that eject the fluid from the print cartridge; one or more air vent openings formed through the entire thickness of the lid from the top surface to the bottom surface ; characterized in that a hydrophobic coating is disposed on at least one of the top or the bottom surfaces of the lid , and the hydrophobic coating being comprised of three layers including an alumina seed layer, created using trimethylaluminum, to bond the lid: a self-assembled monolayer to create a hydrophobic surface: and a silica layer, created using 1,2-bis(trichlorosilyl)ethane, to bond the alumina seed layer and providing an active surface for the self-assembled monolayer, and in that the hydrophobic coating being absent over the one or more air vent openings . a cartridge housing comprising a container body and a lid that encloses the container body , the lid comprising a bottom surface and a top surface ; a fluid reservoir disposed within the container body that receives and contains fluid; a fluid ejector chip disposed on the cartridge housing and comprising a plurality of heating elements that eject the fluid from the print cartridge; one or more air vent openings formed through the entire thickness of the lid from the top surface to the bottom surface ; characterized in that a hydrophobic coating is disposed on at least one of the top or the bottom surfaces of the lid , and the hydrophobic coating being comprised of three layers including an alumina seed layer, created using trimethylaluminum, to bond the lid: a self-assembled monolayer to create a hydrophobic surface: and a silica layer, created using 1,2-bis(trichlorosilyl)ethane, to bond the alumina seed layer and providing an active surface for the self-assembled monolayer, and in that the hydrophobic coating being absent over the one or more air vent openings .
An optical fibre ribbon comprising: a plurality of optical fibres having a diameter of 180 microns and bonded with a matrix material , wherein the matrix material is applied along a longitudinal length of the plurality of optical fibres, wherein the matrix material is applied discontinuously along a longitudinal length of the plurality of optical fibres, wherein each of plurality of optical fibres is defined by a geometrical centre and diameter, wherein the plurality of optical fibres has a predefined distance (P) between geometrical centres of any two adjacent optical fibres of the plurality of optical fibres , wherein the predefined distance (P) between geometrical centres of any two adjacent optical fibres of the plurality of optical fibres is 180 microns characterized in that the optical fibre ribbon has a width of 2.19 millimetre.
Process for storage and for use of liquid hydrogen, wherein liquid hydrogen is introduced into, stored in and discharged from a primary storage means , wherein at least one reliquefaction unit using materials and components utilizing the magnetocaloric effect and at least one contactless fill level measurement means using acoustoelectronic components are installed in the primary storage means and for introduction and discharging of liquid hydrogen at least one cryogenic pump is employed and the evaporation energy required in the discharging and/or use of liquid hydrogen to convert the liquid hydrogen into its gaseous form is withdrawn from a refrigerant in a secondary refrigeration circuit which condenses and is pressurized with a pump and stored in a secondary storage means , wherein the secondary storage means may be arranged at a separate location from the primary storage means .
A hydrogen sensor comprising: a P-type silicon nanowire array comprising a plurality of P-type silicon nanowires; and a hydrogenation catalyst including palladium (Pd) entirely formed on the surface of the P-type silicon nanowires to form a core-shell structure and having a thickness of 1 nm to 20 nm, wherein: the hydrogenation catalyst is configured to be reduced into a metal hydride, PdHx, to form a Schottky contact between the P-type silicon nanowires and the hydrogenation catalyst, and to form a work function of the metal hydride a negative number when exposed to hydrogen such that holes inside the plurality of P-type silicon nanowires are neutralized, and a Schottky barrier is formed by a difference between the work function of the metal hydride and the work function of the P-type silicon nanowires, wherein a current is decreased by formation of the Schottky barrier. a P-type silicon nanowire array comprising a plurality of P-type silicon nanowires; and a hydrogenation catalyst including palladium (Pd) entirely formed on the surface of the P-type silicon nanowires to form a core-shell structure and having a thickness of 1 nm to 20 nm, wherein: the hydrogenation catalyst is configured to be reduced into a metal hydride, PdHx, to form a Schottky contact between the P-type silicon nanowires and the hydrogenation catalyst, and to form a work function of the metal hydride a negative number when exposed to hydrogen such that holes inside the plurality of P-type silicon nanowires are neutralized, and a Schottky barrier is formed by a difference between the work function of the metal hydride and the work function of the P-type silicon nanowires, wherein a current is decreased by formation of the Schottky barrier. the hydrogenation catalyst is configured to be reduced into a metal hydride, PdHx, to form a Schottky contact between the P-type silicon nanowires and the hydrogenation catalyst, and to form a work function of the metal hydride a negative number when exposed to hydrogen such that holes inside the plurality of P-type silicon nanowires are neutralized, and a Schottky barrier is formed by a difference between the work function of the metal hydride and the work function of the P-type silicon nanowires, wherein a current is decreased by formation of the Schottky barrier.