mhurhangee/ep-ind-claims huggingface dataset:
A camera module, the camera module comprising: a PCB (10, Printed Circuit Board) mounted with an image sensor; a holder member mounted on an upper surface of the PCB; a lens module mounted inside the holder member; an actuator arranged at the holder member; and an electronic circuit pattern formed on a surface of the holder member to conductibly connect the PCB and the actuator, where one end of the electronic circuit pattern is connected to the PCB, and the other end of the electronic circuit pattern is connected to the actuator, characterized in that an upper surface of the holder member is formed to wrap the actuator such that the actuator is arranged lower than the upper surface of the holder member, and at least two through holes are formed on the upper surface of the holder member at a position corresponding to a terminal unit of the actuator, wherein the actuator and the electronic circuit pattern are conductively connected through the through holes. a PCB (10, Printed Circuit Board) mounted with an image sensor; a holder member mounted on an upper surface of the PCB; a lens module mounted inside the holder member; an actuator arranged at the holder member; and an electronic circuit pattern formed on a surface of the holder member to conductibly connect the PCB and the actuator, where one end of the electronic circuit pattern is connected to the PCB, and the other end of the electronic circuit pattern is connected to the actuator, characterized in that an upper surface of the holder member is formed to wrap the actuator such that the actuator is arranged lower than the upper surface of the holder member, and at least two through holes are formed on the upper surface of the holder member at a position corresponding to a terminal unit of the actuator, wherein the actuator and the electronic circuit pattern are conductively connected through the through holes.
A reference signal reception method, comprising: determining, by a communication apparatus (1500, 1600), a frequency domain density K of a target reference signal based on a quantity M RB of frequency domain resources; determining, by the communication apparatus (1500, 1600), based on the frequency domain density K, a third frequency domain resource that carries the target reference signal in a first frequency domain resource, and/or a fourth frequency domain resource that carries the target reference signal in a second frequency domain resource, wherein the quantity M RB of frequency domain resources is greater than zero and less than N RB, N RB is a quantity of scheduled frequency domain resources, and the scheduled frequency domain resources comprise the first frequency domain resource and the second frequency domain resource; and the method characterised in that the first frequency domain resource is associated with a first quasi co-location, QCL, assumption, and the second frequency domain resource is associated with a second QCL assumption; and receiving, by the communication apparatus (1500, 1600), by using the first QCL assumption, the target reference signal carried on the third frequency domain resource, and/or receiving, by the communication apparatus (1500, 1600), by using the second quasi co-location QCL assumption, the target reference signal carried on the fourth frequency domain resource. determining, by a communication apparatus (1500, 1600), a frequency domain density K of a target reference signal based on a quantity M RB of frequency domain resources; determining, by the communication apparatus (1500, 1600), based on the frequency domain density K, a third frequency domain resource that carries the target reference signal in a first frequency domain resource, and/or a fourth frequency domain resource that carries the target reference signal in a second frequency domain resource, wherein the quantity M RB of frequency domain resources is greater than zero and less than N RB, N RB is a quantity of scheduled frequency domain resources, and the scheduled frequency domain resources comprise the first frequency domain resource and the second frequency domain resource; and the method characterised in that the first frequency domain resource is associated with a first quasi co-location, QCL, assumption, and the second frequency domain resource is associated with a second QCL assumption; and receiving, by the communication apparatus (1500, 1600), by using the first QCL assumption, the target reference signal carried on the third frequency domain resource, and/or receiving, by the communication apparatus (1500, 1600), by using the second quasi co-location QCL assumption, the target reference signal carried on the fourth frequency domain resource.
A composite polycrystal comprising: polycrystalline diamond formed of diamond grains that are directly bonded mutually, and non-diamond carbon dispersed in said polycrystalline diamond, wherein the composite polycrystal has a concentration of contained hydrogen of less than or equal to 1000 ppm; said polycrystalline diamond has a phase that is continuous three-dimensionally; said diamond grains forming said polycrystalline diamond have a mean grain size of greater than or equal to 10 nm and less than or equal to 500 nm; said non-diamond carbon has a mean grain size of greater than or equal to 10 nm and less than or equal to 500 nm; said non-diamond carbon has a percentage in said composite polycrystal in whole of greater than or equal to 0.1% and less than or equal to 30% as calculated from 100 × Ig /{Id + Ig} wherein Ig is an area of an X-ray diffraction peak derived from surface of said non-diamond carbon, and Id is an area of an X-ray diffraction peak derived from surface of said polycrystalline diamond in an X-ray diffraction profile of said composite polycrystal; said non-diamond carbon is either one of graphite and amorphous carbon; and the composite polycrystal has a Knoop hardness of greater than or equal to 50 GPa.
Method for the serial communication by exchange of data frames between a transmitting node and at least one receiving modified CAN node who are connected by means of a bus system, wherein the roles of transmitter and receiver are assigned to nodes for each data frame by the arbitration procedure defined in the CAN-Standard ISO 11898-1, wherein the exchanged data frames have a logical structure according to the CAN-Standard ISO 11898-1, wherein the data frames are composed of a sequence of bits, wherein the logical structure of the data frames includes a Start-Of-Frame-Bit, an Arbitration Field, a Control Field, a Data Field, a CRC Field, an Acknowledge Field and an End-Of-Frame Field, wherein each bit has a bit time, wherein a CAN FD data frame has shorter bit-time after the end of the arbitration procedure or a longer Data Field, wherein the transmitting node transmits a CAN FD data frame, characterized in that in response to a predefined value of a specific bit within the Control Field the modified CAN node restarts its protocol decoding state machine and waits until it has synchronized itself to the bus activity by checking for a sequence of eleven consecutive recessive bits using a counter and an edge detection mechanism configured to restart the counter if an edge is detected.
A method for managing incoming voice calls to a called party, the called party being an interactive voice recognition platform, hereafter IVR platform, the method comprising: answering a voice call from a calling device at the IVR platform, receiving audio of the voice call at the IVR platform; streaming, by the IVR platform, the audio of the voice call to a server; calculating, by the server, a score indicating a probability that the audio of the voice call is computer-generated, wherein calculating the score comprises detecting silence in the audio; providing the score from the server to the IVR platform; determining, by the IVR platform, whether the score indicating the probability that the audio of the voice call is computer-generated is greater than a predefined threshold; and if it is determined that the score is greater than a predefined threshold, terminating the call by the IVR platform, or if it is determined that the score is not greater than a predefined threshold, not terminating the call by the IVR platform. answering a voice call from a calling device at the IVR platform, receiving audio of the voice call at the IVR platform; streaming, by the IVR platform, the audio of the voice call to a server; calculating, by the server, a score indicating a probability that the audio of the voice call is computer-generated, wherein calculating the score comprises detecting silence in the audio; providing the score from the server to the IVR platform; determining, by the IVR platform, whether the score indicating the probability that the audio of the voice call is computer-generated is greater than a predefined threshold; and if it is determined that the score is greater than a predefined threshold, terminating the call by the IVR platform, or if it is determined that the score is not greater than a predefined threshold, not terminating the call by the IVR platform.
Wind turbine blade deflection monitoring system comprising two or more sensors mounted in the wind turbine blade, characterized in that the sensors are located at different radial positions along the blade, that each sensor comprises an accelerometer and/or a magnetic transducer in addition to any other transducers included in the sensor, that the sensors are provided with connectors, that the sensors and their connectors are jointly encapsulated in a joint encapsulation and that the sensors, their connectors and their joint encapsulation are covered with a metallic shield, and wherein the set of sensors are combined with a set of electrical conductors being connected to the connectors of the sensors to form a long strip or belt of roughly uniform width.
A disposable baby bottle kit, comprising: a container; a collapsible baby bottle positioned within the container; and a teat unit; wherein the container comprises a first portion and a second portion; the collapsible baby bottle comprises an opened end, a body portion and a bottom end, being collapsed and positioned within the first portion of the container; the teat unit is coupled to the second portion of the container; and the first portion and the second portion are coupled to each other forming a sealed capsule enclosing the collapsible baby bottle and the teat unit therein; characterized in that the second portion comprises a connecting means realized as a snap fit mechanism comprising a groove; prepared on the internal surface of the bottom wall of the second portion; and is able to snugly receive engagement of a rim of a connecting end of the teat unit and securing the teat unit thereto. a container; a collapsible baby bottle positioned within the container; and a teat unit; wherein the container comprises a first portion and a second portion; the collapsible baby bottle comprises an opened end, a body portion and a bottom end, being collapsed and positioned within the first portion of the container; the teat unit is coupled to the second portion of the container; and the first portion and the second portion are coupled to each other forming a sealed capsule enclosing the collapsible baby bottle and the teat unit therein; characterized in that the second portion comprises a connecting means realized as a snap fit mechanism comprising a groove; prepared on the internal surface of the bottom wall of the second portion; and is able to snugly receive engagement of a rim of a connecting end of the teat unit and securing the teat unit thereto.
A method for preparing a solution formulation for aerosol inhalation of naringenin, wherein the formulation is prepared from the following components: 1 part by weight of naringenin, 15-30 parts by weight of hydroxypropyl β-cyclodextrin and appropriate amounts of a buffer salt and an excipient, wherein the method comprises the steps of: preparing a buffer-salt solution of a pH value of 7-8.5 by using the buffer salt, adding the naringenin into the buffer-salt solution, then adding the hydroxypropyl β-cyclodextrin, shaking in a constant-temperature air bath till complete dissolving and coating, adding the excipient, and dissolving the excipient.
Method for controlling an optical IQ modulator, including a first Mach-Zehnder modulator and a second Mach-Zehnder modulator, which output signals are adjusted to have a phase difference (ΔΦ) of 90° and are added; comprising the steps of - generating a first single sideband pilot signal (PS1; PM1) in an upper sideband and generating a second single sideband pilot signal (PS2; PM2) in a lower sideband; - converting optical IQ modulator output signals into electrical monitoring signals; - selecting a phase control signal from the monitoring signals corresponding to a conversion product of said first and second single sideband pilot signals (PS1, PS2; PM1, PM2); and - varying the phase difference (ΔΦ) between components of the single sideband pilot signals (PS1, PS2; PM1, PM2) output by the first Mach-Zehnder modulator and the second Mach-Zehnder modulator until said phase control signal becomes a minimum. - generating a first single sideband pilot signal (PS1; PM1) in an upper sideband and generating a second single sideband pilot signal (PS2; PM2) in a lower sideband; - converting optical IQ modulator output signals into electrical monitoring signals; - selecting a phase control signal from the monitoring signals corresponding to a conversion product of said first and second single sideband pilot signals (PS1, PS2; PM1, PM2); and - varying the phase difference (ΔΦ) between components of the single sideband pilot signals (PS1, PS2; PM1, PM2) output by the first Mach-Zehnder modulator and the second Mach-Zehnder modulator until said phase control signal becomes a minimum.
A method comprising: detecting, by a host, unwanted traffic flowing through the host which subscribes to a network node; encrypting, by the host, a detection result for the unwanted traffic with a homomorphic encryption key that is unknown to the network node; generating, by the host, a detection report which contains a first identifier of the host, a second identifier of a source host which transmits the unwanted traffic to the host, a content identifier identifying content of the unwanted traffic, and the encrypted detection result; signing, by the host, the detection report by means of a Public Key Infrastructure public/private key pair of the host; and sending, by the host, the signed detection report to the network node. detecting, by a host, unwanted traffic flowing through the host which subscribes to a network node; encrypting, by the host, a detection result for the unwanted traffic with a homomorphic encryption key that is unknown to the network node; generating, by the host, a detection report which contains a first identifier of the host, a second identifier of a source host which transmits the unwanted traffic to the host, a content identifier identifying content of the unwanted traffic, and the encrypted detection result; signing, by the host, the detection report by means of a Public Key Infrastructure public/private key pair of the host; and sending, by the host, the signed detection report to the network node.
A method for reducing structural damage to a composite substrate resulting from interaction between said substrate and a lightning plasma, said method comprising the steps of: identifying a wavelength at which a spectral radiance of said lightning plasma is at a peak, said wavelength being a function of a temperature of said lightning plasma; preparing a spectrally selective coating comprising the plurality of pigment particles in a binder, wherein the plurality of pigment particles are large compared to the identified wavelength, thereby backscattering ultraviolet energy, and small compared to infrared wavelengths thereby forward scattering infrared energy, and wherein said pigment particles of said plurality of pigment particles include a quarter wave stack comprising a first material and second material, wherein said first material has a different index of refraction than said second material; and applying said coating to said composite substrate. identifying a wavelength at which a spectral radiance of said lightning plasma is at a peak, said wavelength being a function of a temperature of said lightning plasma; preparing a spectrally selective coating comprising the plurality of pigment particles in a binder, wherein the plurality of pigment particles are large compared to the identified wavelength, thereby backscattering ultraviolet energy, and small compared to infrared wavelengths thereby forward scattering infrared energy, and wherein said pigment particles of said plurality of pigment particles include a quarter wave stack comprising a first material and second material, wherein said first material has a different index of refraction than said second material; and applying said coating to said composite substrate.
A ureteral stent comprising: a body having a renal area configured to be placed in a kidney of a patient, a ureteral area connected to the renal area and configured to be placed in a ureter of the patient, and a proximal area connected to the ureteral area and located at a proximal end of the body; and a tail comprising a thread connected to the proximal end of the body of the stent; wherein the proximal area is tubular and is provided with a first flexibility that is greater than a second flexibility of the ureteral area of the stent, characterized in that the tubular proximal area is configured as a spiral shape. a body having a renal area configured to be placed in a kidney of a patient, a ureteral area connected to the renal area and configured to be placed in a ureter of the patient, and a proximal area connected to the ureteral area and located at a proximal end of the body; and a tail comprising a thread connected to the proximal end of the body of the stent; wherein the proximal area is tubular and is provided with a first flexibility that is greater than a second flexibility of the ureteral area of the stent, characterized in that the tubular proximal area is configured as a spiral shape.
A method for measuring insulin resistance in diabetic or pre-diabetic patients, the method comprising: (a) subjecting insulin and C-peptide from a sample to an ionization source under conditions suitable to generate one or more insulin and C-peptide ions detectable by mass spectrometry; and (b) determining the amount of one or more insulin and C-peptide ions by mass spectrometry, wherein the amount of insulin and C-peptide determined by mass spectrometry is used to determine an insulin resistance score, wherein RS = Insulin × 0.0295 + C-peptide × 0.00372 P IR = e − 4.5046 + 1.0001 × RS 1 + e − 4.5046 + 1.0001 × RS optionally wherein said sample comprises a plasma or serum sample. (a) subjecting insulin and C-peptide from a sample to an ionization source under conditions suitable to generate one or more insulin and C-peptide ions detectable by mass spectrometry; and (b) determining the amount of one or more insulin and C-peptide ions by mass spectrometry, wherein the amount of insulin and C-peptide determined by mass spectrometry is used to determine an insulin resistance score, wherein RS = Insulin × 0.0295 + C-peptide × 0.00372 P IR = e − 4.5046 + 1.0001 × RS 1 + e − 4.5046 + 1.0001 × RS optionally wherein said sample comprises a plasma or serum sample.
A developer case comprising: a main body having a bottom wall and containing developer; a cylindrical portion connected to the bottom wall, extending from the main body, and having a discharge port; and a rotating unit positioned so as to extend across the main body and the cylindrical portion and transporting the developer in the main body, wherein the rotating unit includes a rotating shaft that extends in a direction in which the bottom wall extends and has a first portion located in the main body and a second portion located in the cylindrical portion, a first transport member that is spiral, located on the circumferential surface of the second portion of the rotating shaft, rotates integrally with the rotating shaft, and transports the developer in a first transport direction from the cylindrical portion to the main body, a second transport member that is spiral, located over the circumferential surface of the first portion of the rotating shaft and on the radially outer side of the first transport member, rotates integrally with the rotating shaft, and transports the developer at least in a second transport direction from the main body to the cylindrical portion, and dispersing members that extend parallel to the rotating shaft and across the first portion and the second portion and move the developer in the radial direction, wherein the first transport member and the second transport member are located on the same rotating shaft, wherein the cylindrical portion extends from the main body along a direction of the rotating shaft. a main body having a bottom wall and containing developer; a cylindrical portion connected to the bottom wall, extending from the main body, and having a discharge port; and a rotating unit positioned so as to extend across the main body and the cylindrical portion and transporting the developer in the main body,
An assembly for carrying a measuring gauge to be maintained in contact with a portion of a workpiece mounted in a machine tool arranged to rotate the workpiece about a machine reference axis, the workpiece portion following an orbital path around said machine reference axis as the workpiece rotates, wherein the assembly is configured to be mounted in use on a carriage shared with a material removing tool of said machine tool and comprises: a slide support; a slide which is slidably mounted on the slide support, and the slide is slidable along a linear axis with respect to the slide support; a mount for connection to said measuring gauge; a mount coupling which couples the mount to the slide, is pivotally mounted on the slide by a pivot and is arranged to allow variation of the spacing between the mount and the slide; and a slide driver for reciprocating the slide relative to the slide support in synchronism with the orbital motion of said workpiece portion, characterised in that the linear axis along which the slide is slidable relative to the slide support is parallel in use to the direction of infeed of a material removing tool of said machine tool, and the mount coupling is arranged to accommodate variation of the spacing between the mount and the pivot due to the orbital motion of said workpiece portion about the machine reference axis. a slide support; a slide which is slidably mounted on the slide support, and the slide is slidable along a linear axis with respect to the slide support; a mount for connection to said measuring gauge; a mount coupling which couples the mount to the slide, is pivotally mounted on the slide by a pivot and is arranged to allow variation of the spacing between the mount and the slide; and a slide driver for reciprocating the slide relative to the slide support in synchronism with the orbital motion of said workpiece portion, characterised in that the linear axis along which the slide is slidable relative to the slide support is parallel in use to the direction of infeed of a material removing tool of said machine tool, and the mount coupling is arranged to accommodate variation of the spacing between the mount and the pivot due to the orbital motion of said workpiece portion about the machine reference axis.