mhurhangee/patent-ind-claim-en huggingface dataset:
A curable precursor of a pressure sensitive adhesive composition comprising: a free-radically polymerizable material comprising at least one free-radically polymerizable monomer; a polymerization initiator system, comprising: a) a thermal redox initiator system, consisting of: i. a thermal polymerization initiator comprising an organic peroxide; and ii. an accelerator selected from the group consisting of tertiary amines, metal salts, mercaptans, and any combinations or mixtures thereof; and b) a photoinitiator; and wherein the thermal redox initiator system has an activation temperature above which it is capable of producing free radicals upon heating and thermally initiate polymerization of the free-radically polymerizable material, and wherein the curable precursor comprises a photoinitiator in an amount effective for the photoinitiator, upon actinic irradiation, to initiate polymerization of the free-radically polymerizable material and increase the temperature of the curable precursor above the activation temperature of the thermal redox initiator system. a free-radically polymerizable material comprising at least one free-radically polymerizable monomer; a polymerization initiator system, comprising: a) a thermal redox initiator system, consisting of: i. a thermal polymerization initiator comprising an organic peroxide; and ii. an accelerator selected from the group consisting of tertiary amines, metal salts, mercaptans, and any combinations or mixtures thereof; and b) a photoinitiator; and a) a thermal redox initiator system, consisting of: i. a thermal polymerization initiator comprising an organic peroxide; and ii. an accelerator selected from the group consisting of tertiary amines, metal salts, mercaptans, and any combinations or mixtures thereof; and i. a thermal polymerization initiator comprising an organic peroxide; and ii. an accelerator selected from the group consisting of tertiary amines, metal salts, mercaptans, and any combinations or mixtures thereof; and b) a photoinitiator; and
A light source for use in spectroscopy including the 700nm-1000nm wavelength range, comprising a single blue or blue-green high-power LED with center wavelength between 460 and 490 nm and a Ti +3 -Sapphire luminescent element, characterized in that the power output of the LED is between 0.2W and 1.0W; and in that either the Ti +3 -Sapphire luminescent element is selected from the group consisting of: a single crystal rod , a single crystal disk, a polycrystalline rod, a polycrystalline disk, a layer of Ti +3 -Sapphire powder embedded in a clear optical encapsulant , and a layer of Ti +3 -Sapphire powder mixed with one or more luminescent powders and embedded in a clear optical encapsulant ; and a reflector surrounds the LED and the luminescent element, the reflector being selected from the group consisting of a cylindrical aluminum coated reflector , a cylindrical gold coated reflector, and a cylindrical solid aluminum reflector ; or the LED is positioned at one focus of an ellipsoidal reflector and the Ti +3 -Sapphire luminescent element is a single crystal rod positioned at the opposite focus of the ellipsoidal reflector ; whereby the LED light passes through the luminescent element to produce luminescent emission with continuous coverage of at least the 700 - 1000nm wavelength range which is usable to illuminate a sample for spectroscopic measurement. the Ti +3 -Sapphire luminescent element is selected from the group consisting of: a single crystal rod , a single crystal disk, a polycrystalline rod, a polycrystalline disk, a layer of Ti +3 -Sapphire powder embedded in a clear optical encapsulant , and a layer of Ti +3 -Sapphire powder mixed with one or more luminescent powders and embedded in a clear optical encapsulant ; and a reflector surrounds the LED and the luminescent element, the reflector being selected from the group consisting of a cylindrical aluminum coated reflector , a cylindrical gold coated reflector, and a cylindrical solid aluminum reflector ; or the LED is positioned at one focus of an ellipsoidal reflector and the Ti +3 -Sapphire luminescent element is a single crystal rod positioned at the opposite focus of the ellipsoidal reflector ;
An apparatus for generating a vector of digital signal samples (S), the apparatus comprising: a symbol-to-symbol mapping circuit for mapping received data symbols (B) to a discrete signal of complex data symbols (C), a digital signal processor , DSP, the DSP being configured for: receiving the discrete signal of complex data symbols (C), calculate frequency responses (A 1 ,...A M ) corresponding to tones (f ,...f (M) ), through an M-point DFT, and outputting a vector [A 1 ,...A M ] of length M, expanding the vector [A 1 ,...A M ] to a new vector of length N, by inserting zero-value symbols corresponding to tones other than tones allocated to a transmitter, performing an N-point inverse discrete Fourier transform operation on the new vector after zero insertion to obtain the vector of digital signal samples (S), pre-pending a cyclic prefix to the vector of the digital signal samples. a symbol-to-symbol mapping circuit for mapping received data symbols (B) to a discrete signal of complex data symbols (C), a digital signal processor , DSP, the DSP being configured for: receiving the discrete signal of complex data symbols (C), calculate frequency responses (A 1 ,...A M ) corresponding to tones (f ,...f (M) ), through an M-point DFT, and outputting a vector [A 1 ,...A M ] of length M, expanding the vector [A 1 ,...A M ] to a new vector of length N, by inserting zero-value symbols corresponding to tones other than tones allocated to a transmitter, performing an N-point inverse discrete Fourier transform operation on the new vector after zero insertion to obtain the vector of digital signal samples (S), pre-pending a cyclic prefix to the vector of the digital signal samples. receiving the discrete signal of complex data symbols (C), calculate frequency responses (A 1 ,...A M ) corresponding to tones (f ,...f (M) ), through an M-point DFT, and outputting a vector [A 1 ,...A M ] of length M, expanding the vector [A 1 ,...A M ] to a new vector of length N, by inserting zero-value symbols corresponding to tones other than tones allocated to a transmitter, performing an N-point inverse discrete Fourier transform operation on the new vector after zero insertion to obtain the vector of digital signal samples (S), pre-pending a cyclic prefix to the vector of the digital signal samples.
A container pack comprising a plurality of containers, wherein the containers are bonded to each other with a hot melt adhesive composition comprising based on the total weight of the hot melt adhesive composition: a) more than 25 weight percent of at least one block copolymer; b) from about 27 to about 45 weight percent of at least one plasticizer; c) from about 18 to less than about 55 weight percent of a combination of at least two different resins wherein the at least two different resins of the hot melt adhesive composition comprise at least one aromatic hydrocarbon resin and at least one aliphatic hydrocarbon resin, and wherein the weight ratio of aromatic hydrocarbon resin to aliphatic hydrocarbon resin is 3:1 to 1:3; and d) up to 10 weight percent of at least one wax. a) more than 25 weight percent of at least one block copolymer; b) from about 27 to about 45 weight percent of at least one plasticizer; c) from about 18 to less than about 55 weight percent of a combination of at least two different resins wherein the at least two different resins of the hot melt adhesive composition comprise at least one aromatic hydrocarbon resin and at least one aliphatic hydrocarbon resin, and wherein the weight ratio of aromatic hydrocarbon resin to aliphatic hydrocarbon resin is 3:1 to 1:3; and d) up to 10 weight percent of at least one wax.
Driving assistance system for the automated driving of a vehicle , comprising: a driving assistance module , which is configured for automated driving with a first degree of automation and for automated driving with a second degree of automation, wherein the second degree of automation is higher than the first degree of automation; an output module , which is configured to output a driver instruction when a specified driver action is absent for a first time period during automated driving with the first degree of automation; and a user input module , which is configured to receive a user input for a switchover from the first degree of automation to the second degree of automation, wherein the output module is further configured to output the driver instruction, in the event that: (i) the driving assistance system determines that the specified driver action is absent for a second time period which is shorter than the first time period; (ii) the user input for a switchover from the first degree of automation to the second degree of automation is received; and (iii) a switchover from the first degree of automation to the second degree of automation is unsuccessful. a driving assistance module , which is configured for automated driving with a first degree of automation and for automated driving with a second degree of automation, wherein the second degree of automation is higher than the first degree of automation; an output module , which is configured to output a driver instruction when a specified driver action is absent for a first time period during automated driving with the first degree of automation; and a user input module , which is configured to receive a user input for a switchover from the first degree of automation to the second degree of automation, wherein the output module is further configured to output the driver instruction, in the event that: (i) the driving assistance system determines that the specified driver action is absent for a second time period which is shorter than the first time period; (ii) the user input for a switchover from the first degree of automation to the second degree of automation is received; and (iii) a switchover from the first degree of automation to the second degree of automation is unsuccessful. (i) the driving assistance system determines that the specified driver action is absent for a second time period which is shorter than the first time period; (ii) the user input for a switchover from the first degree of automation to the second degree of automation is received; and (iii) a switchover from the first degree of automation to the second degree of automation is unsuccessful.
A loom comprising a pair of support shafts each provided to each of a pair of side frames and configured to rock, a rocking shaft connected to both the support shafts and bridged between the support shafts, at least one bearing structure comprising a bearing configured to rotatably support the rocking shaft , and a support body having at least one attaching surface , which is a surface to which the bearing structure is attached, and provided to extend in a weaving width direction, the loom being characterized in that the support body has a position adjusting surface parallel to the attaching surface , the position adjusting surface being formed on at least one of both ends of the support body in a length direction, the length direction being a direction parallel to the weaving width direction, so that the center of the bearing of the bearing structure mounted on the attaching surface of the support body matches the shaft center of the support shaft in the mounted state, as seen in the weaving width direction.
A method for setting a tuning parameter for an Automated Driving System (ADS) of a vehicle, the method comprising: receiving environmental data from a perception system of the vehicle, said environmental data comprising a plurality of environmental parameters; determining, by means of a self-learning model, an environmental scenario based on the received environmental data; setting the tuning parameter for the ADS based on the self-learning model and the determined environmental scenario, the tuning parameter defining a dynamic parameter of the ADS; receiving at least one signal representative of a vehicle user feedback on the set tuning parameter; updating the self-learning model for the set tuning parameter for the identified environmental scenario based on the received vehicle user feedback; wherein the self-learning model comprises a reinforcement learning algorithm and wherein the step of updating the self-learning model comprises penalizing or rewarding the reinforcement learning algorithm based on the received vehicle user feedback; and characterized in that the step of updating the self-learning model comprises rewarding the reinforcement learning algorithm if no vehicle user feedback is received. receiving environmental data from a perception system of the vehicle, said environmental data comprising a plurality of environmental parameters; determining, by means of a self-learning model, an environmental scenario based on the received environmental data; setting the tuning parameter for the ADS based on the self-learning model and the determined environmental scenario, the tuning parameter defining a dynamic parameter of the ADS; receiving at least one signal representative of a vehicle user feedback on the set tuning parameter; updating the self-learning model for the set tuning parameter for the identified environmental scenario based on the received vehicle user feedback; wherein the self-learning model comprises a reinforcement learning algorithm and wherein the step of updating the self-learning model comprises penalizing or rewarding the reinforcement learning algorithm based on the received vehicle user feedback; and characterized in that the step of updating the self-learning model comprises rewarding the reinforcement learning algorithm if no vehicle user feedback is received.
A method of manufacturing a plurality of optoelectronic semiconductor devices comprising the steps of: - depositing a plurality of semiconductor chips , which in operation emit electromagnetic radiation of a first wavelength range from a radiation exit surface , on an auxiliary carrier , - depositing a first conversion material in intermediate regions between the semiconductor chips , wherein the first conversion material is suitable for converting electromagnetic radiation of the first wavelength range into electromagnetic radiation of a second wavelength range, - depositing a second conversion material over the first conversion material , wherein the second conversion material is suitable for converting electromagnetic radiation of the first wavelength range into electromagnetic radiation of a second wavelength range or a third wavelength range, - removing the auxiliary carrier and - separating the semiconductor components, wherein the first conversion material forms a first conversion layer on the side flanks of the semiconductor chip and the second conversion material forms a second conversion layer on the radiation exit surface of the semiconductor chip , wherein - the first conversion material is a first liquid resin in which phosphor particles are incorporated, and the second conversion material is a second liquid resin in which phosphor particles are incorporated, and - the phosphor particles sediment from the second resin into the first resin, and - the first and the second resin are cured before separation. - depositing a plurality of semiconductor chips , which in operation emit electromagnetic radiation of a first wavelength range from a radiation exit surface , on an auxiliary carrier , - depositing a first conversion material in intermediate regions between the semiconductor chips , wherein the first conversion material is suitable for converting electromagnetic radiation of the first wavelength range into electromagnetic radiation of a second wavelength range, - depositing a second conversion material over the first conversion material , wherein the second conversion material is suitable for converting electromagnetic radiation of the first wavelength range into electromagnetic radiation of a second wavelength range or a third wavelength range, - removing the auxiliary carrier and - separating the semiconductor components, wherein the first conversion material forms a first conversion layer on the side flanks of the semiconductor chip and the second conversion material forms a second conversion layer on the radiation exit surface of the semiconductor chip , wherein - the first conversion material is a first liquid resin in which phosphor particles are incorporated, and the second conversion material is a second liquid resin in which phosphor particles are incorporated, and - the phosphor particles sediment from the second resin into the first resin, and - the first and the second resin are cured before separation.
A camera control method applied to a mobile terminal, wherein the mobile terminal comprises an accommodating space for accommodating a retractable camera assembly, the retractable camera assembly comprises a camera and a motor , the motor is connected to the camera via an elastic transmission mechanism for driving the camera to move; wherein the method comprises: detecting a displacement amount of the camera ; determining that there is a triggering operation against the camera when the displacement amount of the camera does not match a displacement amount corresponding to a control signal of the motor ; identifying a current state of the camera when a triggering operation against the camera is detected; wherein the triggering operation comprises a pressing operation or a stretching operation, and the state of the camera comprises an extended state, a retracting process or an extending process; controlling , through the motor and the elastic transmission mechanism , the camera to move in a direction of retracting back into the accommodating space or to move in a direction of extending out of the accommodating space, according to the triggering operation and the current state of the camera ; wherein the elastic transmission mechanism is a spring. detecting a displacement amount of the camera ; determining that there is a triggering operation against the camera when the displacement amount of the camera does not match a displacement amount corresponding to a control signal of the motor ; identifying a current state of the camera when a triggering operation against the camera is detected; wherein the triggering operation comprises a pressing operation or a stretching operation, and the state of the camera comprises an extended state, a retracting process or an extending process; controlling , through the motor and the elastic transmission mechanism , the camera to move in a direction of retracting back into the accommodating space or to move in a direction of extending out of the accommodating space, according to the triggering operation and the current state of the camera ; wherein the elastic transmission mechanism is a spring.
A carton made of paperboard, having flaps , the carton comprising, at least one score along a crease line of at least one flap , wherein the score is 25% to 85% of thickness of the paperboard characterised in that the score is 5% to 70% of length of the crease line .
A biaxially oriented polypropylene film comprising: a polypropylene resin as a main component, wherein a first melting peak Tm1 existing at a highest temperature side in a first temperature rising curve obtained by measuring melting peaks using DSC is 176°C to 180°C, characterized in that a temperature difference Tm1-Tm2 between a second melting peak Tm2 existing at a highest temperature side in a second temperature rising curve obtained when melting peaks are measured again after first temperature rising and cooling by measuring melting peaks using DSC and the first melting peak Tm1 is 3°C to 15°C, wherein the first melting peak Tm1 and second melting peak Tm2 are obtained as described in the description. a polypropylene resin as a main component, wherein a first melting peak Tm1 existing at a highest temperature side in a first temperature rising curve obtained by measuring melting peaks using DSC is 176°C to 180°C, characterized in that a temperature difference Tm1-Tm2 between a second melting peak Tm2 existing at a highest temperature side in a second temperature rising curve obtained when melting peaks are measured again after first temperature rising and cooling by measuring melting peaks using DSC and the first melting peak Tm1 is 3°C to 15°C, wherein the first melting peak Tm1 and second melting peak Tm2 are obtained as described in the description.
Method for operating a heating appliance , comprising at least the following steps: a) detecting a temperature in an area below the burner of the heating appliance , b) comparing the temperature detected in step a) with a limit temperature, c) identifying a blocked outlet of the combustion chamber , if, in the comparison according to step b), the temperature detected in a step a) is below the limit temperature. a) detecting a temperature in an area below the burner of the heating appliance , b) comparing the temperature detected in step a) with a limit temperature, c) identifying a blocked outlet of the combustion chamber , if, in the comparison according to step b), the temperature detected in a step a) is below the limit temperature.
A device to separate particles from a gas stream, the device including: a chamber having an inlet and an outlet between which the gas stream flows; a rotor mounted in the chamber for rotation about a rotation axis , the rotor including a longitudinal passage extending through the rotor along which the gass stream passes in moving from the inlet to the outlet of the chamber; a plurality of gates located radially outward of the passage which collect the particles from the gas stream passing through the passage, each of the gates being operable to move between a closed position for collecting the particles at the gate, and an open position providing for delivery of the collected particles from the gate; and a cavity into which the particles are delivered from the plurality of gates; characterised in that each gate includes an upstream gate portion and a downstream gate portion, with the upstream gate portion being operable in an open position and a closed position, with the upstream gate portion in the open position providing for the flow of particles to the downstream gate portion, with the downstream gate portion being operable in an open position and a closed position, with the downstream gate portion in the open position providing for the delivery of particles to said cavity. a chamber having an inlet and an outlet between which the gas stream flows; a rotor mounted in the chamber for rotation about a rotation axis , the rotor including a longitudinal passage extending through the rotor along which the gass stream passes in moving from the inlet to the outlet of the chamber; a plurality of gates located radially outward of the passage which collect the particles from the gas stream passing through the passage, each of the gates being operable to move between a closed position for collecting the particles at the gate, and an open position providing for delivery of the collected particles from the gate; and a cavity into which the particles are delivered from the plurality of gates; characterised in that each gate includes an upstream gate portion and a downstream gate portion, with the upstream gate portion being operable in an open position and a closed position, with the upstream gate portion in the open position providing for the flow of particles to the downstream gate portion, with the downstream gate portion being operable in an open position and a closed position, with the downstream gate portion in the open position providing for the delivery of particles to said cavity.