mhurhangee/patent-ind-claim-en huggingface dataset:
A light source system , comprising: at least two lasers configured to emit excitation light; a substrate made of material with a high thermal conductivity, wherein the substrate is provided with a notch , a wall of the notch comprises a bottom wall and sidewalls , and the at least two lasers are received in different sidewalls ; a reflective layer covering the wall of the notch and configured to reflect the excitation light; a wavelength conversion layer provided on a surface of the reflective layer covering the bottom wall and configured to perform wavelength conversion on the excitation light to obtain excited light; and a light guiding element covering an opening of the notch and configured to reflect the excitation light and transmit the excited light, to obtain light to be emitted by the light source system . at least two lasers configured to emit excitation light; a substrate made of material with a high thermal conductivity, wherein the substrate is provided with a notch , a wall of the notch comprises a bottom wall and sidewalls , and the at least two lasers are received in different sidewalls ; a reflective layer covering the wall of the notch and configured to reflect the excitation light; a wavelength conversion layer provided on a surface of the reflective layer covering the bottom wall and configured to perform wavelength conversion on the excitation light to obtain excited light; and a light guiding element covering an opening of the notch and configured to reflect the excitation light and transmit the excited light, to obtain light to be emitted by the light source system .
A key information management device comprising a key information distribution unit configured to distribute, to a mobile terminal , key information for unlocking or activating a vehicle by the mobile terminal transmitting a predetermined transmission signal to the vehicle , wherein the key information distribution unit is configured to make an authority regarding unlocking or activation of the vehicle , which is imparted to the key information, different according to the mobile terminal that is a distribution target, and the key information distribution unit is configured to make the authority regarding unlocking or activation of the vehicle different according to content of a predetermined service of using the vehicle when the key information distribution unit distributes the key information to the mobile terminal related to the predetermined service, characterized in that , the key information distribution unit is configured to make different an authority which is imparted to the key information regarding sharing of the key information with another mobile terminal , when the user of the mobile terminal that is a distribution target is a user of the vehicle , according to whether the user is an owner user of the vehicle or a user other than the owner user of the vehicle . the key information distribution unit is configured to make the authority regarding unlocking or activation of the vehicle different according to content of a predetermined service of using the vehicle when the key information distribution unit distributes the key information to the mobile terminal related to the predetermined service, characterized in that , the key information distribution unit is configured to make different an authority which is imparted to the key information regarding sharing of the key information with another mobile terminal , when the user of the mobile terminal that is a distribution target is a user of the vehicle , according to whether the user is an owner user of the vehicle or a user other than the owner user of the vehicle .
Organic-inorganic core-shell nano-particles obtainable by a method comprising steps: 1) Preparing an oil-in-water emulsion by mixing an organic compound A; an emulsion stabilizer C; and aqueous medium of pH 2-6; at a mass ratio C/A of 0.1 to 2, to result in 1-50 mass% based on emulsion of emulsified droplets of particle size 30-300 nm wherein the particle size is the Z-averaged hydrodynamic diameter measured by Dynamic Light Scattering (DLS); and 2) Providing an inorganic oxide shell layer to the emulsified droplets by adding to the emulsion obtained in step 1) at least one inorganic oxide precursor, to result in organic-inorganic core-shell nano-particles with mass ratio core/shell of from 0.2 to 25 where the core is the sum of compound A and emulsion stabilizer C and shell is metal oxide equivalent of inorganic oxide precursor, wherein compound A is an apolar organic non-polymeric compound having a solubility in water of at most 5 kg/m 3 and wherein the compound A is selected from the group consisting of hydrocarbon compounds, fatty acids, alcohols, esters, ethers, and vinyl compounds, and the emulsion stabilizer C is a cationic addition copolymer comprising at least one monomer unit having a cationic charge and at least one monomer unit being neutral or non-ionic and having an overall positive zeta potential and wherein the cationic addition copolymer comprises ethylenically unsaturated monomers or vinyl monomers. 1) Preparing an oil-in-water emulsion by mixing an organic compound A; an emulsion stabilizer C; and aqueous medium of pH 2-6; at a mass ratio C/A of 0.1 to 2, to result in 1-50 mass% based on emulsion of emulsified droplets of particle size 30-300 nm wherein the particle size is the Z-averaged hydrodynamic diameter measured by Dynamic Light Scattering (DLS); and 2) Providing an inorganic oxide shell layer to the emulsified droplets by adding to the emulsion obtained in step 1) at least one inorganic oxide precursor, to result in organic-inorganic core-shell nano-particles with mass ratio core/shell of from 0.2 to 25 where the core is the sum of compound A and emulsion stabilizer C and shell is metal oxide equivalent of inorganic oxide precursor, wherein compound A is an apolar organic non-polymeric compound having a solubility in water of at most 5 kg/m 3 and wherein the compound A is selected from the group consisting of hydrocarbon compounds, fatty acids, alcohols, esters, ethers, and vinyl compounds, and the emulsion stabilizer C is a cationic addition copolymer comprising at least one monomer unit having a cationic charge and at least one monomer unit being neutral or non-ionic and having an overall positive zeta potential and wherein the cationic addition copolymer comprises ethylenically unsaturated monomers or vinyl monomers.
A method for configuring random access channel, RACH, resources, applied to a terminal device , wherein the method comprises: receiving (S701) configuration information sent by a network device , wherein the configuration information is used to configure time domain resources and frequency domain resources of the RACH resources, the RACH resources correspond to multiple groups of frequency domain resources, the multiple groups of frequency domain resources do not overlap, characterized in that frequency domain resources corresponding to RACH resources on different time domain resources are different within each preset time (T1), wherein the preset time (T1) represents a time length of a receiving window for a random access preamble; and sending (S702) the random access preamble to the network device on the RACH resources. receiving (S701) configuration information sent by a network device , wherein the configuration information is used to configure time domain resources and frequency domain resources of the RACH resources, the RACH resources correspond to multiple groups of frequency domain resources, the multiple groups of frequency domain resources do not overlap, characterized in that frequency domain resources corresponding to RACH resources on different time domain resources are different within each preset time (T1), wherein the preset time (T1) represents a time length of a receiving window for a random access preamble; and sending (S702) the random access preamble to the network device on the RACH resources.
An enclosure comprising: an outer housing; a sealant assembly defining a cable port for routing a cable into the outer housing; characterized in that the enclosure further comprises a plastic port plug with a handle , the plastic port plug having an outer end including the handle and an inner end , the plastic port plug including a retention feature positioned at the inner end of the plastic port plug and a main body extending between the handle and the retention feature, the handle and the retention feature being integral with the main body , the plastic port plug passing through the cable port, the retention feature being moveable between an expanded configuration and a radially compressed configuration, wherein the retention feature has an elastic construction allowing the retention feature to move to the radially compressed configuration while passing through the cable port and causing the retention feature to automatically expand to the expanded configuration after passing through the cable port; wherein the retention feature is more resilient than the main body and wherein the retention feature has a cross-dimension, CD3, when in the expanded configuration that is at least 5 percent larger than a cross-dimension, CD4, of the main body. an outer housing; a sealant assembly defining a cable port for routing a cable into the outer housing; characterized in that the enclosure further comprises a plastic port plug with a handle , the plastic port plug having an outer end including the handle and an inner end , the plastic port plug including a retention feature positioned at the inner end of the plastic port plug and a main body extending between the handle and the retention feature, the handle and the retention feature being integral with the main body , the plastic port plug passing through the cable port, the retention feature being moveable between an expanded configuration and a radially compressed configuration, wherein the retention feature has an elastic construction allowing the retention feature to move to the radially compressed configuration while passing through the cable port and causing the retention feature to automatically expand to the expanded configuration after passing through the cable port; wherein the retention feature is more resilient than the main body and wherein the retention feature has a cross-dimension, CD3, when in the expanded configuration that is at least 5 percent larger than a cross-dimension, CD4, of the main body.
A method of managing electronic messages , comprising: storing, at an electronic message server , a previously delivered electronic message comprising a list of recipients the previously delivered electronic message has been delivered to, wherein the electronic message server comprises an update module configured to access the previously delivered electronic message and the list of recipients; receiving, from a first electronic message client , recipient information identifying a new recipient to be added to the list of recipients of the previously delivered electronic message; updating, by the update module, the master copy of the previously delivered electronic message by including the new recipient in the list of recipients of the previously delivered electronic message; providing the recipient information to a second electronic message client that stores a copy of the previously delivered electronic message comprising the list of recipients; and wherein receipt of the recipient information at the second electronic message client causes the second electronic message client to update the copy of the previously delivered electronic message by including the new recipient in the list of recipients of the copy of the previously delivered electronic message. storing, at an electronic message server , a previously delivered electronic message comprising a list of recipients the previously delivered electronic message has been delivered to, wherein the electronic message server comprises an update module configured to access the previously delivered electronic message and the list of recipients; receiving, from a first electronic message client , recipient information identifying a new recipient to be added to the list of recipients of the previously delivered electronic message; updating, by the update module, the master copy of the previously delivered electronic message by including the new recipient in the list of recipients of the previously delivered electronic message; providing the recipient information to a second electronic message client that stores a copy of the previously delivered electronic message comprising the list of recipients; and wherein receipt of the recipient information at the second electronic message client causes the second electronic message client to update the copy of the previously delivered electronic message by including the new recipient in the list of recipients of the copy of the previously delivered electronic message.
A method (200 or 300) for determining a radiation dose transformation error, wherein there is a deformation in one or more imaged structures as recorded by at least one fixed image data set and at least one moving image data set, the method (200 or 300) comprising: automatically or semi-automatically identifying (204 or 304) corresponding landmark points (206 or 306) in the fixed image and in the moving image; obtaining (208 or 308) a fixed image radiation dose grid (210 or 310) and a moving image radiation dose grid (212 or 312), wherein the moving image radiation dose grid comprises actual moving image point doses (214 or 314) representing radiation dose levels at the landmark points in the moving image radiation dose grid; determining (216 or 316) a transformation matrix (218 or 318) between the fixed image and the moving image; applying (220 or 320) the transformation matrix to the moving image data set to generate a warped radiation dose grid (222 or 322); determining (224 or 324) warped point doses (226 or 326) representing radiation dose levels in the warped radiation dose grid at the landmark points in the fixed image radiation dose grid; and determining (228 or 340) a difference between the actual point dose and the warped point dose at corresponding landmark points in order to generate dose errors (230 or 342). automatically or semi-automatically identifying (204 or 304) corresponding landmark points (206 or 306) in the fixed image and in the moving image; obtaining (208 or 308) a fixed image radiation dose grid (210 or 310) and a moving image radiation dose grid (212 or 312), wherein the moving image radiation dose grid comprises actual moving image point doses (214 or 314) representing radiation dose levels at the landmark points in the moving image radiation dose grid; determining (216 or 316) a transformation matrix (218 or 318) between the fixed image and the moving image; applying (220 or 320) the transformation matrix to the moving image data set to generate a warped radiation dose grid (222 or 322); determining (224 or 324) warped point doses (226 or 326) representing radiation dose levels in the warped radiation dose grid at the landmark points in the fixed image radiation dose grid; and determining (228 or 340) a difference between the actual point dose and the warped point dose at corresponding landmark points in order to generate dose errors (230 or 342).
A method for producing a mixture of recycled terephthalic acid (r-TA) and recycled iso-terephthalic acid (r-IA) from condensation polymer waste (CP waste) comprising the steps: - analyzing CP waste with regard to its IA content, - dividing the CP waste into two or more fractions with a different IA content, - mixing the fractions to obtain a desired IA content in the mixture, - processing the mixture to obtain a mixture of r-TA and r-IA with an adjusted r-IA isomer content of between 0.001 wt.% and 25 wt.% in the mixture. - analyzing CP waste with regard to its IA content, - dividing the CP waste into two or more fractions with a different IA content, - mixing the fractions to obtain a desired IA content in the mixture, - processing the mixture to obtain a mixture of r-TA and r-IA with an adjusted r-IA isomer content of between 0.001 wt.% and 25 wt.% in the mixture.
A delivery device for percutaneously delivering a self-expanding prosthesis , the self-expanding prosthesis having a first end and a second end , the second end being proximal to the first end when the self-expanding prosthesis is loaded onto the delivery device, the delivery device comprising: a handle having at least one actuator thereon; a control release shaft having a proximal end operatively coupled to the handle and a distal end including a collar having a sloped distal edge , wherein the control release shaft is rotatable via actuation of the at least one actuator of the handle in order to rotate the collar; and a pusher shaft disposed within the control release shaft, the pusher shaft having a proximal end operatively coupled to the handle and a distal end having a spindle coupled thereto, the spindle being configured to receive at least one connector extending from at least one endmost crown of the self-expanding prosthesis in order to releasably attach the self-expanding prosthesis to the pusher shaft, wherein, when disposed over the second end of the self-expanding prosthesis, the collar is configured to radially restrain the endmost crowns and the at least one connector of the self-expanding prosthesis, and wherein actuation of the at least one actuator of the handle rotates and proximally retracts the collar relative to the spindle to achieve incremental release of the endmost crowns and the at least one connector of the self-expanding prosthesis. a handle having at least one actuator thereon; a control release shaft having a proximal end operatively coupled to the handle and a distal end including a collar having a sloped distal edge , wherein the control release shaft is rotatable via actuation of the at least one actuator of the handle in order to rotate the collar; and a pusher shaft disposed within the control release shaft, the pusher shaft having a proximal end operatively coupled to the handle and a distal end having a spindle coupled thereto, the spindle being configured to receive at least one connector extending from at least one endmost crown of the self-expanding prosthesis in order to releasably attach the self-expanding prosthesis to the pusher shaft, wherein, when disposed over the second end of the self-expanding prosthesis, the collar is configured to radially restrain the endmost crowns and the at least one connector of the self-expanding prosthesis, and wherein actuation of the at least one actuator of the handle rotates and proximally retracts the collar relative to the spindle to achieve incremental release of the endmost crowns and the at least one connector of the self-expanding prosthesis.
A vehicle electronic device comprising: a transceiver configured to communicate with a mobile device; a display ; and at least one processor , characterized by that the at least one processor is configured to: control the display to display a first screen including coded information comprising a network access address required to generate a first communication connection between the vehicle electronic device and the mobile device , wherein the first communication connection directly communicates with the mobile device, perform device registration for the mobile device by transmitting a first authentication information to the mobile device through the first communication connection, control the transceiver to transmit a request for authentication to the mobile device via the first communication connection and receive second authentication information via the first communication connection, and perform authentication based on whether the second authentication information corresponds to the first authentication information. a transceiver configured to communicate with a mobile device; a display ; and at least one processor , characterized by that the at least one processor is configured to: control the display to display a first screen including coded information comprising a network access address required to generate a first communication connection between the vehicle electronic device and the mobile device , wherein the first communication connection directly communicates with the mobile device, perform device registration for the mobile device by transmitting a first authentication information to the mobile device through the first communication connection, control the transceiver to transmit a request for authentication to the mobile device via the first communication connection and receive second authentication information via the first communication connection, and perform authentication based on whether the second authentication information corresponds to the first authentication information. control the display to display a first screen including coded information comprising a network access address required to generate a first communication connection between the vehicle electronic device and the mobile device , wherein the first communication connection directly communicates with the mobile device, perform device registration for the mobile device by transmitting a first authentication information to the mobile device through the first communication connection, control the transceiver to transmit a request for authentication to the mobile device via the first communication connection and receive second authentication information via the first communication connection, and perform authentication based on whether the second authentication information corresponds to the first authentication information.
A method for controlling a smart terminal device, characterized in that the method comprises: detecting a wear state of receivers of an earphone connected to the smart terminal device, wherein the wear state comprises a wearing state corresponding to the earphone being worn by a user of the smart terminal device and a taking-off state corresponding to the earphone being taken off by the user; and controlling a running state of an application in the smart terminal device according to the wear state of the receivers; wherein controlling a running state of an application in the smart terminal device according to the wear state of the receivers comprises: detecting whether or not an application is running in the smart terminal device; starting up , if no, an application in the smart terminal device according to a predetermined strategy according to the wear state of the receivers; determining , if yes, a type of the running application, so that the running state of the running application is controlled according to the determined type and the wear state of the receivers. detecting a wear state of receivers of an earphone connected to the smart terminal device, wherein the wear state comprises a wearing state corresponding to the earphone being worn by a user of the smart terminal device and a taking-off state corresponding to the earphone being taken off by the user; and controlling a running state of an application in the smart terminal device according to the wear state of the receivers; wherein controlling a running state of an application in the smart terminal device according to the wear state of the receivers comprises: detecting whether or not an application is running in the smart terminal device; starting up , if no, an application in the smart terminal device according to a predetermined strategy according to the wear state of the receivers; determining , if yes, a type of the running application, so that the running state of the running application is controlled according to the determined type and the wear state of the receivers. detecting whether or not an application is running in the smart terminal device; starting up , if no, an application in the smart terminal device according to a predetermined strategy according to the wear state of the receivers; determining , if yes, a type of the running application, so that the running state of the running application is controlled according to the determined type and the wear state of the receivers.