mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating a lighting plan from overlapping images, the lighting plan comprising a map of locations of a plurality of light units located on a ceiling of an interior space, and the method comprising: receiving at least two images from a mobile device , the at least two images comprising at least partially overlapping areas captured by the mobile device from different locations as the mobile device moves through said interior space; the method being characterized by the following steps: rectifying the at least two images ; analyzing the at least two rectified images individually to determine and identify any light units within each of the at least two rectified images, thereby generating a sparse image representations for each of the rectified at least two images, the respective sparse image representation comprising light unit data for identified light units in the respective image, wherein light unit data of an identified light unit comprises an image identifier, an identified light unit identifier and a position of the identified light unit in the respective rectified image, combining light unit data from the sparse image representations of the rectified at least two images to generate combined light unit data; and generating the lighting plan from the combined light unit data of the rectified at least two images. rectifying the at least two images ; analyzing the at least two rectified images individually to determine and identify any light units within each of the at least two rectified images, thereby generating a sparse image representations for each of the rectified at least two images, the respective sparse image representation comprising light unit data for identified light units in the respective image, wherein light unit data of an identified light unit comprises an image identifier, an identified light unit identifier and a position of the identified light unit in the respective rectified image, combining light unit data from the sparse image representations of the rectified at least two images to generate combined light unit data; and generating the lighting plan from the combined light unit data of the rectified at least two images.
An electromagnetic wave detection apparatus comprising: an irradiator configured to emit electromagnetic waves; a first detector comprising a plurality of detection elements configured to detect, by irradiation position, reflected waves of the electromagnetic waves irradiated on an object (ob); a memory configured to store first related information and second related information; a controller configured to update the first related information; and a travel direction modifier configured to change a travel direction, in accordance with a drive signal, of the electromagnetic waves emitted by the irradiator so as to irradiate the electromagnetic waves on the object (ob) while changing the irradiation position; wherein the memory is configured to store the first related information associating a plurality of combinations of the drive signal and the emission direction of the electromagnetic waves whose travel direction was changed; wherein the memory is configured to store the second related information associating a plurality of combinations of the emission direction and the position of the detection element; and characterized in that the controller is configured to update the first related information based on the outputted drive signal and the emission direction, the emission direction being calculated from the position of the element that detects the reflected waves of the electromagnetic waves and the second related information. an irradiator configured to emit electromagnetic waves; a first detector comprising a plurality of detection elements configured to detect, by irradiation position, reflected waves of the electromagnetic waves irradiated on an object (ob); a memory configured to store first related information and second related information; a controller configured to update the first related information; and a travel direction modifier configured to change a travel direction, in accordance with a drive signal, of the electromagnetic waves emitted by the irradiator so as to irradiate the electromagnetic waves on the object (ob) while changing the irradiation position; wherein the memory is configured to store the first related information associating a plurality of combinations of the drive signal and the emission direction of the electromagnetic waves whose travel direction was changed; wherein the memory is configured to store the second related information associating a plurality of combinations of the emission direction and the position of the detection element; and characterized in that the controller is configured to update the first related information based on the outputted drive signal and the emission direction, the emission direction being calculated from the position of the element that detects the reflected waves of the electromagnetic waves and the second related information.
A cold brew process involving brewing ground coffee beans at ambient or colder temperatures for preparing a liquid coffee beverage concentrate comprising the steps of: (i) subjecting a first vessel comprising at least one first filter bag of infusion material to a first steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a first beverage extract, (ii) subjecting a second vessel comprising at least one second filter bag of infusion material to a first steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a second beverage extract, (iii) combining the first beverage extract and the second beverage extract to form a combined extract, (iv) providing a third vessel containing at least one third filter bag of infusion material, (v) exposing the combined extract to the at least one third filter bag of infusion material in the third vessel containing the combined first and second extracts in a second steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a liquid coffee beverage concentrate having a Brix level of 9 to 15. (i) subjecting a first vessel comprising at least one first filter bag of infusion material to a first steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a first beverage extract, (ii) subjecting a second vessel comprising at least one second filter bag of infusion material to a first steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a second beverage extract, (iii) combining the first beverage extract and the second beverage extract to form a combined extract, (iv) providing a third vessel containing at least one third filter bag of infusion material, (v) exposing the combined extract to the at least one third filter bag of infusion material in the third vessel containing the combined first and second extracts in a second steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a liquid coffee beverage concentrate having a Brix level of 9 to 15.
A process for manufacturing a microelectromechanical mirror device comprising: in a semiconductor wafer , defining a support frame , a plate connected to the support frame so as to be orientable around at least one rotation axis (X) and cantilever structures extending from the support frame and coupled to the plate so that bending of the cantilever structures causes rotations of the plate around the at least one rotation axis (X); forming piezoelectric actuators on the cantilever structures ; and forming pads on the support frame ; characterized by forming spacer structures protruding from the support frame more than both the pads and stacks of layers forming the piezoelectric actuators . in a semiconductor wafer , defining a support frame , a plate connected to the support frame so as to be orientable around at least one rotation axis (X) and cantilever structures extending from the support frame and coupled to the plate so that bending of the cantilever structures causes rotations of the plate around the at least one rotation axis (X); forming piezoelectric actuators on the cantilever structures ; and forming pads on the support frame ; characterized by forming spacer structures protruding from the support frame more than both the pads and stacks of layers forming the piezoelectric actuators .
Actuation device for a DC-decoupled DC-DC converter having a transformer and a synchronous rectifier , having: a signal-generating device which is designed to generate control signals for switching devices of the synchronous rectifier and a reference current signal ; a first comparator device which is coupled to the signal-generating device and which is designed to detect the secondary-side output current (Jo) of the synchronous rectifier , to compare said secondary-side output current with the reference current signal and to generate a current control signal on the basis of the comparison; and a pulse-width-modulation device , which is coupled to the signal-generating device and to the first comparator device and which is designed to generate pulse-width-modulated actuation signals for the switching devices of the synchronous rectifier on the basis of the control signals and the current control signal, wherein the pulse-width modulation occurs at a duty cycle in which a safety interval is present during which the magnetic flux in the transformer can be reduced, and wherein the signal-generating device is also designed to reduce the reference current signal to a predetermined reference current threshold value within a first predetermined time period. a signal-generating device which is designed to generate control signals for switching devices of the synchronous rectifier and a reference current signal ; a first comparator device which is coupled to the signal-generating device and which is designed to detect the secondary-side output current (Jo) of the synchronous rectifier , to compare said secondary-side output current with the reference current signal and to generate a current control signal on the basis of the comparison; and a pulse-width-modulation device , which is coupled to the signal-generating device and to the first comparator device and which is designed to generate pulse-width-modulated actuation signals for the switching devices of the synchronous rectifier on the basis of the control signals and the current control signal, wherein the pulse-width modulation occurs at a duty cycle in which a safety interval is present during which the magnetic flux in the transformer can be reduced, and wherein the signal-generating device is also designed to reduce the reference current signal to a predetermined reference current threshold value within a first predetermined time period.
A method performed by a wireless device to access a communications network, wherein the wireless device is associated with a coverage class from a set of ranked coverage classes, the method comprising: obtaining (S102) a network access configuration for the set of ranked coverage classes from the communications network; initiating (S110) network access to the communications network by transmitting a preamble sequence for random access on a physical random access channel, PRACH, wherein said network access is initiated during a starting opportunity related to the coverage class of the wireless device; and among possible starting opportunities that may be used by a higher ranked coverage class according to the network access configuration, backing off from any possible starting opportunity of the coverage class of the wireless device having PRACH resources that collide with PRACH resources of a possible starting opportunity of the higher ranked coverage class. obtaining (S102) a network access configuration for the set of ranked coverage classes from the communications network; initiating (S110) network access to the communications network by transmitting a preamble sequence for random access on a physical random access channel, PRACH, wherein said network access is initiated during a starting opportunity related to the coverage class of the wireless device; and among possible starting opportunities that may be used by a higher ranked coverage class according to the network access configuration, backing off from any possible starting opportunity of the coverage class of the wireless device having PRACH resources that collide with PRACH resources of a possible starting opportunity of the higher ranked coverage class.
A method for use in a motion sensing device having an inertial measurement unit with a strap down integration unit , and an application processing unit , the method comprising: sensing at least one acceleration value and at least one rotational value at the inertial measurement unit ; converting the sensed acceleration value and rotational value into velocity and orientation increments by strap down integration; storing the velocity and orientation increments in a first buffer at the inertial measurement unit ; and characterized by receiving an update request at the inertial measurement unit from the application processing unit over a first link and in response transmitting the contents of the first buffer from the inertial measurement unit to the application processing unit over a second link . sensing at least one acceleration value and at least one rotational value at the inertial measurement unit ; converting the sensed acceleration value and rotational value into velocity and orientation increments by strap down integration; storing the velocity and orientation increments in a first buffer at the inertial measurement unit ; and characterized by receiving an update request at the inertial measurement unit from the application processing unit over a first link and in response transmitting the contents of the first buffer from the inertial measurement unit to the application processing unit over a second link .
A pharmaceutical composition, comprising a first component, being at least one selected from a farnesoid X receptor agonist, which is obeticholic acid, a pharmaceutically acceptable salt and a solvate thereof; and a second component, being at least one selected from a NPC1L1 receptor inhibitor, which is Ezetimibe, a pharmaceutically acceptable salt, and a solvate thereof.
A rotary electric machine comprising a rotor rotatable within a stator assembly , the stator assembly comprising a stator body defining a plurality of stator slots accommodating electrical conductors , a slot liner being provided within each slot to provide electrical insulation between the stator body and the electrical conductors , wherein each slot liner protrudes from an end of the stator slot and carries an armour element to protect the slot liner and associated conductors from erosion whilst permitting efficient cooling, characterized in that the each armour element comprises a clip shaped to extend around the protruding end of the associated slot liner .
A method for verification based on a verification code, the method comprising: receiving (S201) a verification request; obtaining (S202) a pre-generated first character string after receiving the verification request, wherein the first character string comprises at least one variable character; replacing (S203) some or all variable characters with backup characters based on a pre-established correspondence between variable characters and backup characters, to obtain a second character string, wherein the first character string has a meaning and the second character string has the same meaning to a person; generating (S204) a verification code based on the second character string, wherein characters in the verification code do not undergo character distortion, color change, or background addition, and the verification code has the same meaning to a person; displaying the verification code and an input area corresponding to the verification code, wherein the input area includes a plurality of selectable items, and the verification code is displayed in the form of text information that instructs a user to select one or more selectable items from the plurality of selectable items; receiving a user input in the input area from the user, the user input corresponding to the verification code; and verifying (S204) the user corresponding to the verification request as being a person based on the user input and the first character string. receiving (S201) a verification request; obtaining (S202) a pre-generated first character string after receiving the verification request, wherein the first character string comprises at least one variable character; replacing (S203) some or all variable characters with backup characters based on a pre-established correspondence between variable characters and backup characters, to obtain a second character string, wherein the first character string has a meaning and the second character string has the same meaning to a person; generating (S204) a verification code based on the second character string, wherein characters in the verification code do not undergo character distortion, color change, or background addition, and the verification code has the same meaning to a person; displaying the verification code and an input area corresponding to the verification code, wherein the input area includes a plurality of selectable items, and the verification code is displayed in the form of text information that instructs a user to select one or more selectable items from the plurality of selectable items; receiving a user input in the input area from the user, the user input corresponding to the verification code; and verifying (S204) the user corresponding to the verification request as being a person based on the user input and the first character string.
An information processing apparatus comprising: a first memory being a flash memory and storing a first program; first processing means ; a second memory being a read-only memory and storing an alteration verification program ; and second processing means that executes the alteration verification program , and performs alteration verification on the first program that is to be executed by the first processing means ; wherein the first processing means executes the first program which has been determined by the second processing means to be not altered, characterized in that the first processing means switches the second processing means from executing the alteration verification program stored in the second memory to executing another processing program stored in a third memory being a volatile storage medium, by switching a reset vector of the second processing means from an address area of the second memory to an address area of the third memory according to information stored within the first program which has been determined by the second processing means to be not altered, the reset vector being an address value that is referred to after a reset state of the second processing means is cancelled. a first memory being a flash memory and storing a first program; first processing means ; a second memory being a read-only memory and storing an alteration verification program ; and second processing means that executes the alteration verification program , and performs alteration verification on the first program that is to be executed by the first processing means ; wherein the first processing means executes the first program which has been determined by the second processing means to be not altered, characterized in that the first processing means switches the second processing means from executing the alteration verification program stored in the second memory to executing another processing program stored in a third memory being a volatile storage medium, by switching a reset vector of the second processing means from an address area of the second memory to an address area of the third memory according to information stored within the first program which has been determined by the second processing means to be not altered, the reset vector being an address value that is referred to after a reset state of the second processing means is cancelled.
A method of forming a getter element comprising: determining an expected amount of fission product contained within a fluid flow of a nuclear fission reactor core over a selected period of time; identifying an expected amount of reaction product to be formed in a chemical reaction between the expected amount of the fission product and a getter material, the chemical reaction occurring over the selected period of time; determining a volume parameter of a getter process mixture including the getter material and based on the expected amount of the fission product and the expected amount of reaction product; wherein the volume parameter identifies an amount or volume of the getter process mixture needed to yield the expected amount of reaction product in the selected period of time; and forming a getter body with the getter process mixture, the getter body including at least one through-channel defined by the determined volume parameter, by densifying the getter process mixture to form a getter body having a density between 25 and 45% or between 50 and 70% of a theoretical density of the getter body; wherein the volume parameter defines a surface area sufficient to facilitate a chemical reaction between the expected amount of the fission product and the getter material to yield the expected amount of reaction product over the selected period of time. determining an expected amount of fission product contained within a fluid flow of a nuclear fission reactor core over a selected period of time; identifying an expected amount of reaction product to be formed in a chemical reaction between the expected amount of the fission product and a getter material, the chemical reaction occurring over the selected period of time; determining a volume parameter of a getter process mixture including the getter material and based on the expected amount of the fission product and the expected amount of reaction product; wherein the volume parameter identifies an amount or volume of the getter process mixture needed to yield the expected amount of reaction product in the selected period of time; and forming a getter body with the getter process mixture, the getter body including at least one through-channel defined by the determined volume parameter, by densifying the getter process mixture to form a getter body having a density between 25 and 45% or between 50 and 70% of a theoretical density of the getter body; wherein the volume parameter defines a surface area sufficient to facilitate a chemical reaction between the expected amount of the fission product and the getter material to yield the expected amount of reaction product over the selected period of time.