mhurhangee/ep-ind-claims huggingface dataset:
A process for the manufacture of a chocolate product comprising the steps of refining, conching and optionally tempering a chocolate mass which comprises one or more fats selected from cocoa butter, cocoa butter alternatives, milk fat, and vegetable fats which are liquid at standard ambient temperature and pressure, wherein the total amount of the fats is 15 to 35 wt.%, and one or more of hydrated salts, hydrated sugars and hydrated sugar alcohols, wherein total amount of hydrated salts, hydrated sugars and hydrated sugar alcohols is 1-15 wt%, wherein is dextrose monohydrate wherein the temperature of the chocolate mass during refining, conching and optional tempering does not exceed 50°C. one or more fats selected from cocoa butter, cocoa butter alternatives, milk fat, and vegetable fats which are liquid at standard ambient temperature and pressure, wherein the total amount of the fats is 15 to 35 wt.%, and one or more of hydrated salts, hydrated sugars and hydrated sugar alcohols, wherein total amount of hydrated salts, hydrated sugars and hydrated sugar alcohols is 1-15 wt%, wherein is dextrose monohydrate wherein the temperature of the chocolate mass during refining, conching and optional tempering does not exceed 50°C.
A method of controlling fluid flow in a hydraulic system of a transmission, to compensate for leakage therein, the method comprising: providing a controller, a variable displacement pump having an inlet and an outlet, a main circuit fluidly coupled to the pump, a first regulator valve, a first pressure switch, and a solenoid; storing a first nominal regulation point in the controller as a function of a transmission input speed, which corresponds to the speed of a transmission input shaft of the transmission; pumping fluid from the pump into the main circuit, where the pump is operated at a first displacement; detecting a first regulation point (410, 414) at which the fluid in the main circuit reaches a first regulation pressure; comparing the detected first regulation point (410, 414) to the first nominal regulation point and determining a difference therebetween; adjusting the displacement of the pump from the first displacement to a second displacement to compensate for the difference between the detected first regulation point (410, 414) and the first nominal regulation point; determining a leakage adaptive constant for the main circuit as a function of the fluid temperature or the transmission input speed, which corresponds to the speed of the transmission input shaft, relative to the nominal regulation point; and determining an adjusted nominal regulation point, based on the leakage adaptive constant, where the adjusted nominal regulation point is at a different transmission input speed, which corresponds to the speed of the transmission input shaft, or fluid temperature from the nominal regulation point. providing a controller, a variable displacement pump having an inlet and an outlet, a main circuit fluidly coupled to the pump, a first regulator valve, a first pressure switch, and a solenoid; storing a first nominal regulation point in the controller as a function of a transmission input speed, which corresponds to the speed of a transmission input shaft of the transmission; pumping fluid from the pump into the main circuit, where the pump is operated at a first displacement; detecting a first regulation point (410, 414) at which the fluid in the main circuit reaches a first regulation pressure; comparing the detected first regulation point (410, 414) to the first nominal regulation point and determining a difference therebetween; adjusting the displacement of the pump from the first displacement to a second displacement to compensate for the difference between the detected first regulation point (410, 414) and the first nominal regulation point; determining a leakage adaptive constant for the main circuit as a function of the fluid temperature or the transmission input speed, which corresponds to the speed of the transmission input shaft, relative to the nominal regulation point; and determining an adjusted nominal regulation point, based on the leakage adaptive constant, where the adjusted nominal regulation point is at a different transmission input speed, which corresponds to the speed of the transmission input shaft, or fluid temperature from the nominal regulation point.
A cleaner head for a vacuum cleaning appliance, comprising: a main body comprising a downwardly-directed suction opening and at least one surface engaging support member (52,56); a front agitator and a rear agitator, each agitator being rotatable relative to the main body; and means for rotating the front agitator and the rear agitator; characterized in that the front agitator comprising a relatively flexible pile and the rear agitator comprising relatively stiff surface engaging means arranged to dislodge matter from the pile of the front agitator, the pile of the front agitator and the at least one surface engaging support member (52,56) extending downwardly beyond the surface engaging means of the rear agitator. a main body comprising a downwardly-directed suction opening and at least one surface engaging support member (52,56); a front agitator and a rear agitator, each agitator being rotatable relative to the main body; and means for rotating the front agitator and the rear agitator; characterized in that the front agitator comprising a relatively flexible pile and the rear agitator comprising relatively stiff surface engaging means arranged to dislodge matter from the pile of the front agitator, the pile of the front agitator and the at least one surface engaging support member (52,56) extending downwardly beyond the surface engaging means of the rear agitator.
A method executed by a concentrator connected between a plurality of remote units (102, 140, 154) and a management server, the method including: (i) receiving and storing properties data from a remote location associated with a remote unit (102, 140) including a microengine (114, 138) and a meter (112, 142) for measuring usage of a resource at a customer's premises, the properties data representing a profile of the remote unit and including communications parameters and device parameters, the communications parameters representing the selectable communications protocols and associated equipment the microengine supports; (ii) receiving message data representing a request associated with the remote unit from the management server; (iii) generating response data representing a response to the request based on the message data and the stored properties data; and (iv) sending the response data to one of the remote unit and the management server, as determined by the request based on the message data, wherein the properties data is used to determine and establish an available communications link among multiple different communications links supported by at least some of the selectable communications protocols by selecting and using the respective communications parameters of the properties data for the established communication link to send the response data to the remote unit. (i) receiving and storing properties data from a remote location associated with a remote unit (102, 140) including a microengine (114, 138) and a meter (112, 142) for measuring usage of a resource at a customer's premises, the properties data representing a profile of the remote unit and including communications parameters and device parameters, the communications parameters representing the selectable communications protocols and associated equipment the microengine supports; (ii) receiving message data representing a request associated with the remote unit from the management server; (iii) generating response data representing a response to the request based on the message data and the stored properties data; and (iv) sending the response data to one of the remote unit and the management server, as determined by the request based on the message data, wherein the properties data is used to determine and establish an available communications link among multiple different communications links supported by at least some of the selectable communications protocols by selecting and using the respective communications parameters of the properties data for the established communication link to send the response data to the remote unit.
A method in a network within a semiconductor chip comprising of steps to be carried by a Network Interface Unit NIU of the semiconductor chip in communication with the network, the steps comprising: receiving a data flit; extracting a destination of a received data flit; generating a power flit configured to wake at least one component along a route to the destination; and sending the power flit along the route to the destination before sending a data flit, the power flit waking the at least one component on the route. receiving a data flit; extracting a destination of a received data flit; generating a power flit configured to wake at least one component along a route to the destination; and sending the power flit along the route to the destination before sending a data flit, the power flit waking the at least one component on the route.
A method of observing a beam of light in a sample chamber of a charged particle beam system, the method comprising: providing an imaging aid inside the sample chamber, the imaging aid having a calibration surface configured such that illuminating, with a first beam of light, any area on the calibration surface undergoing irradiation by a second beam of charged particles changes an intensity of secondary radiation that the second beam causes to be emitted from the calibration surface; illuminating a region of the calibration surface with the first beam while the second beam irradiates the region and induces emissions of secondary radiation from the region, wherein the secondary radiation may be light, secondary electrons or backscattered electrons; detecting the secondary radiation; generating an electronic signal corresponding to the intensity of the secondary radiation as a function of time; and characterised by determining a value of an alignment property of the first beam by analyzing the electronic signal. providing an imaging aid inside the sample chamber, the imaging aid having a calibration surface configured such that illuminating, with a first beam of light, any area on the calibration surface undergoing irradiation by a second beam of charged particles changes an intensity of secondary radiation that the second beam causes to be emitted from the calibration surface; illuminating a region of the calibration surface with the first beam while the second beam irradiates the region and induces emissions of secondary radiation from the region, wherein the secondary radiation may be light, secondary electrons or backscattered electrons; detecting the secondary radiation; generating an electronic signal corresponding to the intensity of the secondary radiation as a function of time; and characterised by determining a value of an alignment property of the first beam by analyzing the electronic signal.
A method for determining a rogue Optical Network Unit, ONU, in an Optical Line Terminal, OLT, of a passive optical network, the OLT receiving uplink signals of multiple ONUs, the method comprising the steps of:. detecting, by at least one first processor of the OLT, a rogue ONU condition using an uplink error rate and an optical power value, if the rogue ONU condition is detected then (S211, S212),. determining, by the at least one first processor, an original infected zone based on a first time slot allocation in which each time slot corresponds to an uplink signal of one ONU;. determining, by the at least one first processor, a new infected zone based on a second time slot allocation in which each time slot corresponds to an uplink signal of one ONU;. determining, by the at least one first processor, a same ONU in the original infected zone and in the new infected zone as a rogue ONU candidate; and. determining, by the at least one first processor, a rogue ONU based on the rogue ONU candidate; characterized in that determining, by the at least one first processor, a rogue ONU based on the rogue ONU candidate comprises: closing in turn the rogue ONU candidate and checking error rates of other ONUs except the closed ONU; if all error rates of the other ONU are not larger than the error rate threshold, determining the closed rogue ONU candidate as the rogue ONU.. detecting, by at least one first processor of the OLT, a rogue ONU condition using an uplink error rate and an optical power value, if the rogue ONU condition is detected then (S211, S212),. determining, by the at least one first processor, an original infected zone based on a first time slot allocation in which each time slot corresponds to an uplink signal of one ONU;. determining, by the at least one first processor, a new infected zone based on a second time slot allocation in which each time slot corresponds to an uplink signal of one ONU;. determining, by the at least one first processor, a same ONU in the original infected zone and in the new infected zone as a rogue ONU candidate; and. determining, by the at least one first processor, a rogue ONU based on the rogue ONU candidate;
An illumination system, comprising at least one laser light source having a numerical aperture NA L, and an optical waveguide which has a connector with a connector housing at a proximal end thereof and which is connectable by said connector to the at least one laser light source and/or can be associated therewith, and which comprises an emitting element at the distal end of the optical waveguide, wherein the connector housing has means for reducing an influence of a variation range of the numerical aperture NA L of the laser light source of the laser light from the laser light source coupled into the connector.
A client-side method of authenticating a client (c), comprising the steps of: sending client identity information (IMSI) to an authentication server, the client identity information being an international mobile subscriber identity; receiving by the client encrypted first credentials (K c,tgs) and n challenges (RAND) from the authentication server, the number n of the challenges (RAND) being at least one, the first credentials (K c,tgs) being encrypted with a first authentication key (K c), the first authentication key being based on n first secrets (K gsm,SRES;CK,IK,RES), and the n first secret (K gsm,SRES;CK,IK,RES) being associated with the client identity information; forming at the client the n first secrets (K gsm, SRES) based on a client's secret (Ki) and the n challenges (RAND); forming at the client (c) by using the n first secrets (K gsm, SRES) the first authentication key (K c); and decrypting the encrypted first credentials (K c,tgs) using the first authentication key (K c) at the client; characterised by the decryption of the encrypted first credentials (K c,tgs) being independent of sending any response based on the client's secret (Ki) from the client (c) to the authentication server. sending client identity information (IMSI) to an authentication server, the client identity information being an international mobile subscriber identity; receiving by the client encrypted first credentials (K c,tgs) and n challenges (RAND) from the authentication server, the number n of the challenges (RAND) being at least one, the first credentials (K c,tgs) being encrypted with a first authentication key (K c), the first authentication key being based on n first secrets (K gsm,SRES;CK,IK,RES), and the n first secret (K gsm,SRES;CK,IK,RES) being associated with the client identity information; forming at the client the n first secrets (K gsm, SRES) based on a client's secret (Ki) and the n challenges (RAND); forming at the client (c) by using the n first secrets (K gsm, SRES) the first authentication key (K c); and decrypting the encrypted first credentials (K c,tgs) using the first authentication key (K c) at the client; characterised by the decryption of the encrypted first credentials (K c,tgs) being independent of sending any response based on the client's secret (Ki) from the client (c) to the authentication server.
An integrated circuit "IC" device comprising: an array of bit cells of static random-access memory "SRAM"; a multi-level digitization module configured to generate a value in a range of values from a bit cell in the array of bit cells, the range of values including more than two discrete values; an output buffer configured to store the value generated by the multi-level digitization module; and an error correction code "ECC" decoder configured to output error corrected values based on a probability of the bit cell in the SRAM module having slipped as indicated by the value stored in the output buffer. an array of bit cells of static random-access memory "SRAM"; a multi-level digitization module configured to generate a value in a range of values from a bit cell in the array of bit cells, the range of values including more than two discrete values; an output buffer configured to store the value generated by the multi-level digitization module; and an error correction code "ECC" decoder configured to output error corrected values based on a probability of the bit cell in the SRAM module having slipped as indicated by the value stored in the output buffer.
A method for forming a non-planar quantum well structure, comprising: receiving a quantum well structure having a substrate, a IV or III-V material barrier layer, a doping layer, and an undoped germanium quantum well layer, said barrier layer and said doping layer being formed between said substrate and said quantum well layer; selectively etching the quantum well structure to form a germanium fin structure; depositing a top barrier layer of semiconductor material over the fin structure, such that the top barrier layer of semiconductor material covers the top and sidewall portions of the fin structure; and depositing gate metal over the top barrier layer of semiconductor material and across the fin structure. receiving a quantum well structure having a substrate, a IV or III-V material barrier layer, a doping layer, and an undoped germanium quantum well layer, said barrier layer and said doping layer being formed between said substrate and said quantum well layer; selectively etching the quantum well structure to form a germanium fin structure; depositing a top barrier layer of semiconductor material over the fin structure, such that the top barrier layer of semiconductor material covers the top and sidewall portions of the fin structure; and depositing gate metal over the top barrier layer of semiconductor material and across the fin structure.
A computer-implemented method of encoding an input image using watermark-based image reconstruction to compensate for lossy encoding schemes, the method comprising: obtaining, by one or more computing devices, the input image; generating, by the one or more computing devices, a first output image by encoding and decoding the input image according to a lossy encoding scheme; determining, by the one or more computing devices, a difference image that describes a difference between the input image and the first output image; generating, by the one or more computing devices and using a machine-learned message embedding model, a second output image that comprises an embedded message that is based at least in part on the difference image, comprising: generating, by the one or more computing devices and as an output of a machine-learned watermark generation model of the machine-learned message embedding model, the watermark data based at least in part on the difference image; and adding, by the one or more computing devices, the watermark data to the input image to obtain the second output image; and encoding, by the one or more computing devices and using the encoding scheme, the second output image to obtain an encoded second output image. obtaining, by one or more computing devices, the input image; generating, by the one or more computing devices, a first output image by encoding and decoding the input image according to a lossy encoding scheme; determining, by the one or more computing devices, a difference image that describes a difference between the input image and the first output image; generating, by the one or more computing devices and using a machine-learned message embedding model, a second output image that comprises an embedded message that is based at least in part on the difference image, comprising: generating, by the one or more computing devices and as an output of a machine-learned watermark generation model of the machine-learned message embedding model, the watermark data based at least in part on the difference image; and adding, by the one or more computing devices, the watermark data to the input image to obtain the second output image; and generating, by the one or more computing devices and as an output of a machine-learned watermark generation model of the machine-learned message embedding model, the watermark data based at least in part on the difference image; and adding, by the one or more computing devices, the watermark data to the input image to obtain the second output image; and encoding, by the one or more computing devices and using the encoding scheme, the second output image to obtain an encoded second output image.
A holding means for holding an electronic device to a vehicle component, in particular to a windscreen of a vehicle, the holding means comprising a basic body for carrying an electronic device as well as a fastening unit for fastening the basic body to the vehicle component, characterized by a suction cup arranged on the basic body for attaching the electronic device to the basic body, demounting means for deforming the suction cup and thereby for releasing a connection between the suction cup and the electronic device while the demounting means comprise at least one actuator (22, 23) movably arranged on the basic body, in particular on the holder, the actuator (22. 23) being movably from a starting position into a final position, in which the actuator (22, 23) causes a deformation of the suction cup.
A collection container (1; 2) for waste and/or reusable materials, wherein the collection container (1; 2) has a container bottom, wherein a continuous or non-continuous, extending frame is arranged on the outside of the collection container (1; 2), in a plane above the container bottom, characterized in that the plane of the frame is angled relative to the plane of the container bottom, wherein the extending frame is a support frame for supporting the collection container (1; 2) on an outer abutment and/or provides a seal against a surrounding outer frame part.