mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing images, comprising: receiving, at an image processor , a set of images captured from a mobile imaging platform , the set of images corresponding to a scene changing over time; obtaining , at the image processor , set of frozen images from the received set of images by removing relative movement between images, the relative movement arising due to motion of the mobile imaging platform ; decomposing , at the image processor , the set of frozen images to detect static objects, leaner objects, and mover objects in the scene , the mover objects being objects that change spatial orientation in the scene with time due to motion of the objects, and the leaner objects being stationary features that appear to change spatial orientation in the scene with time due to motion of the mobile imaging platform ; and compressing , using the image processor , the static objects, leaner objects, and mover objects in the scene separately using different compression techniques, for storage and/or transmission. receiving, at an image processor , a set of images captured from a mobile imaging platform , the set of images corresponding to a scene changing over time; obtaining , at the image processor , set of frozen images from the received set of images by removing relative movement between images, the relative movement arising due to motion of the mobile imaging platform ; decomposing , at the image processor , the set of frozen images to detect static objects, leaner objects, and mover objects in the scene , the mover objects being objects that change spatial orientation in the scene with time due to motion of the objects, and the leaner objects being stationary features that appear to change spatial orientation in the scene with time due to motion of the mobile imaging platform ; and compressing , using the image processor , the static objects, leaner objects, and mover objects in the scene separately using different compression techniques, for storage and/or transmission.
Process of printing high resolution, preferably medical, devices with complex geometries, comprising the steps of: - printing a model with a three-dimensional printing method by using a three-dimensional printer; said model positive reproducing the medical device to be made; - said model being printed of a first water-soluble polymer or aqueous solutions; - covering said model with a layer of material insoluble to a solution able to dissolve said first soluble polymer ; said covering step making a shell of solid mold provided with a surface comprising empty interstitial spots; - infiltrating an amount of water or aqueous solution into said solid mold through said empty interstitial spots so that to dissolve said model and to make a mold cavity negative reproducing said model ; - infiltrating into the mold cavity , through the outer walls of said mold, a second liquid polymer ; said material having a melting temperature greater than the melting temperature of said second liquid polymer and/or a difference in the Hildebrand solubility parameter greater than or equal to 2 cal 1/2 cm -3/2 with respect to that of said second liquid polymer ; said step of infiltrating into the mold cavity occurs by depositing the liquid polymer on the outer walls of said mold , wherein the second liquid polymer solidifies or hardens in the mold cavity and the device is formed; - removing said mold by releasing the product obtained and created in said second polymer . - printing a model with a three-dimensional printing method by using a three-dimensional printer; said model positive reproducing the medical device to be made; - said model being printed of a first water-soluble polymer or aqueous solutions; - covering said model with a layer of material insoluble to a solution able to dissolve said first soluble polymer ; said covering step making a shell of solid mold provided with a surface comprising empty interstitial spots; - infiltrating an amount of water or aqueous solution into said solid mold through said empty interstitial spots so that to dissolve said model and to make a mold cavity negative reproducing said model ; - infiltrating into the mold cavity , through the outer walls of said mold, a second liquid polymer ; said material having a melting temperature greater than the melting temperature of said second liquid polymer and/or a difference in the Hildebrand solubility parameter greater than or equal to 2 cal 1/2 cm -3/2 with respect to that of said second liquid polymer ; said step of infiltrating into the mold cavity occurs by depositing the liquid polymer on the outer walls of said mold , wherein the second liquid polymer solidifies or hardens in the mold cavity and the device is formed; - removing said mold by releasing the product obtained and created in said second polymer .
A system for determining a total particle emission of a flow cytometer particle, the system comprising: a. an apparatus adapted to pass a laser excitation energy into a generally perpendicular flow cytometer channel element through which a particle passes, said particle being adapted to be irradiated by said apparatus and to emit at least one fluorescent emission responsive to said laser excitation energy, wherein said at least one fluorescent emission results from a geometrical convolution of a geometrical form of both: i. said laser excitation energy; and ii. a geometric characteristic of at least one fluorescent emission of said particle; b. an analog emission detector adapted to detect at least some of said at least one fluorescent emission and to output an analog electrical emission; c. a digital sampler adapted to provide multiple time samples of said analog electrical emission; and d. a processor, adapted to process said multiple time samples and to calculate a total fluorescent emission of said particle; characterized in that : processing said multiple time samples by said processor includes determining the extent of said geometric convolution and fitting said time samples to a best-fit function of a same extent. a. an apparatus adapted to pass a laser excitation energy into a generally perpendicular flow cytometer channel element through which a particle passes, said particle being adapted to be irradiated by said apparatus and to emit at least one fluorescent emission responsive to said laser excitation energy, wherein said at least one fluorescent emission results from a geometrical convolution of a geometrical form of both: i. said laser excitation energy; and ii. a geometric characteristic of at least one fluorescent emission of said particle; i. said laser excitation energy; and ii. a geometric characteristic of at least one fluorescent emission of said particle; b. an analog emission detector adapted to detect at least some of said at least one fluorescent emission and to output an analog electrical emission; c. a digital sampler adapted to provide multiple time samples of said analog electrical emission; and d. a processor, adapted to process said multiple time samples and to calculate a total fluorescent emission of said particle;
An electro-optical sensor comprising: a test signal input to receive a test signal from a device under test, DUT, ; a split path buffer including an Alternating Current, AC, path and a Direct Current, DC, path , the AC path and the DC path coupled to the test signal input ; and a Mach-Zehnder Modulator, MZM, including a bias input coupled to the test signal input and a bias circuit via the split path buffer , characterised in that the DC path includes a DC offset circuit including an adjustable amplifier with an input coupled to the test signal input via the DC path and an output coupled to the bias input of the MZM via the DC path ; and optionally wherein the DC offset circuit includes an adjustable DC source coupled to the adjustable amplifier . a test signal input to receive a test signal from a device under test, DUT, ; a split path buffer including an Alternating Current, AC, path and a Direct Current, DC, path , the AC path and the DC path coupled to the test signal input ; and a Mach-Zehnder Modulator, MZM, including a bias input coupled to the test signal input and a bias circuit via the split path buffer , characterised in that the DC path includes a DC offset circuit including an adjustable amplifier with an input coupled to the test signal input via the DC path and an output coupled to the bias input of the MZM via the DC path ; and optionally wherein the DC offset circuit includes an adjustable DC source coupled to the adjustable amplifier .
An optical receiver for a quantum key distribution system, the optical receiver comprising a plurality of optical components mounted or formed in a substrate and characterised in that the optical components are optically coupled by one or more hollow core waveguides formed in the substrate, wherein at least one of said optical components is a mounted component retained in an alignment slot which is formed in the substrate , intersects one of said hollow core waveguides and defines the alignment of the optical component retained therein with respect to that hollow core waveguide , and wherein the optical receiver further comprises first and second receiver channels, each receiver channel being arranged to detect a photon polarised in one of a respective pair of orthogonal polarisation states and to distinguish the polarisation state of that photon, respective pairs of polarisation states being mutually inclined.
A computer-implemented method comprising the steps: processing a portion of source code to generate an arithmetic circuit, wherein: the source code is written in a high level programming language and further wherein the source code represents a smart contract; and the arithmetic circuit comprises one or more arithmetic gates arranged to represent some or all of the functionality expressed in the source code, wherein the arithmetic circuit is architecture independent. the source code is written in a high level programming language and further wherein the source code represents a smart contract; and the arithmetic circuit comprises one or more arithmetic gates arranged to represent some or all of the functionality expressed in the source code, wherein the arithmetic circuit is architecture independent.
A device for handling moved piece goods , comprising: - at least one manipulator for piece goods , - at least one transport device by way of which the moved piece goods are transportable to a seizing range of the at least one manipulator as well as - at least one horizontal conveying device assigned to the seizing range and/or to a movement space of the at least one manipulator , via which horizontal conveying device the moved piece goods are transported in the seizing range of the at least one manipulator ; - at least one detection means for obtaining space coordinates and/or position data and/or contour data of piece goods to be seized by the manipulator ; - wherein the at least one horizontal conveying device and the at least one transport device are calibratable and/or controllable based on the space coordinates and/or position data and/or contour data, characterized in that - a defined number of parallel, directly adjacent, in each case individually controllable horizontal conveying devices are assigned to the seizing range of the at least one manipulator , the number of horizontal conveying devices corresponding to the respective number of transport devices , which are supplying piece goods . - at least one manipulator for piece goods , - at least one transport device by way of which the moved piece goods are transportable to a seizing range of the at least one manipulator as well as - at least one horizontal conveying device assigned to the seizing range and/or to a movement space of the at least one manipulator , via which horizontal conveying device the moved piece goods are transported in the seizing range of the at least one manipulator ; - at least one detection means for obtaining space coordinates and/or position data and/or contour data of piece goods to be seized by the manipulator ; - wherein the at least one horizontal conveying device and the at least one transport device are calibratable and/or controllable based on the space coordinates and/or position data and/or contour data, - a defined number of parallel, directly adjacent, in each case individually controllable horizontal conveying devices are assigned to the seizing range of the at least one manipulator , the number of horizontal conveying devices corresponding to the respective number of transport devices , which are supplying piece goods .
A locking mechanism comprising: a lock casing having at least one mounting bolt disposed in a bolt receptacle; a lock bolt including a recess and disposed at least partially within the lock casing, the lock bolt movable between extended and retracted positions; and a retracting bolt shield including a first member coupled to a blocking member , the blocking member movable between a blocking position over the mounting bolt in the bolt receptacle to a non-blocking position outside of the bolt receptacle, the first member disposed within the lock bolt recess and adapted to drive the blocking member from the blocking position to the non-blocking position as the lock bolt moves from the extended position to the retracted position. a lock casing having at least one mounting bolt disposed in a bolt receptacle; a lock bolt including a recess and disposed at least partially within the lock casing, the lock bolt movable between extended and retracted positions; and a retracting bolt shield including a first member coupled to a blocking member , the blocking member movable between a blocking position over the mounting bolt in the bolt receptacle to a non-blocking position outside of the bolt receptacle, the first member disposed within the lock bolt recess and adapted to drive the blocking member from the blocking position to the non-blocking position as the lock bolt moves from the extended position to the retracted position.
An isolated peptide consisting of the amino acid sequence selected from the group consisting of DWLPKPNMS (SEQ ID NO: 12), CDWLPKPNM (SEQ ID NO: 13), TCDWLPKPN (SEQ ID NO: 14), KTCDWLPKP (SEQ ID NO: 15), EKTCDWLPK (SEQ ID NO: 16), LEKTCDWLP (SEQ ID NO: 17), or variants thereof having a conservative amino acid substitution for an amino acid flanking the DWLP sequence.
A system for transporting sample containers comprising: a manager unit comprising a distribution area and one or more distribution area grippers mounted on a robotic arm , configured to place sample containers into and retrieve sample containers from the distribution area of the manager unit ; a centrifuge unit coupled to the manager unit ; an aliquotter unit coupled to the manager unit ; a sample container; a conveyance system ; an output drawer with an error area ; and a scheduler configured to determine which sample container sitting in the distribution area is the next appropriate sample container to begin processing, wherein the one or more distribution area grippers are configured to select the sample container that is the next appropriate sample container to be transferred, wherein the appropriate sample container is the sample container with the highest priority and/or the sample container that can be processed using the resources available according to its route plan, and wherein the selected sample container is transported from the distribution area to the conveyance system of the system if no centrifugation is required, to a centrifuge unit if centrifugation is required, or to the output drawer with an error area , wherein the output drawer is, for example, for sample containers for which no test information is downloaded, for which a downstream module is unavailable for an extended period of time, or for which insufficient serum or plasma is present in a centrifuged sample container.
An eyepiece for projecting an image light field to an eye of a viewer, the eyepiece comprising: a waveguide configured to propagate light via internal reflection; a dynamic input coupling grating (ICG) formed on a first lateral region of the waveguide ; a light source configured to generate a light beam transmitted to the dynamic ICG ; a controller coupled to the light source and the dynamic ICG , the controller being configured to: modulate an intensity of the light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; and control the dynamic ICG to, for each time slot of the sequence of time slots, diffract a respective portion of the light beam into the waveguide at a respective angle corresponding to the respective field angle; and an exit pupil expander coupled to a second lateral region of the waveguide and configured to direct each respective portion of the light beam out of the waveguide toward the eye of the viewer at the respective field angle, thereby projecting the image light field to the eye of the viewer. a waveguide configured to propagate light via internal reflection; a dynamic input coupling grating (ICG) formed on a first lateral region of the waveguide ; a light source configured to generate a light beam transmitted to the dynamic ICG ; a controller coupled to the light source and the dynamic ICG , the controller being configured to: modulate an intensity of the light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; and control the dynamic ICG to, for each time slot of the sequence of time slots, diffract a respective portion of the light beam into the waveguide at a respective angle corresponding to the respective field angle; and modulate an intensity of the light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; and control the dynamic ICG to, for each time slot of the sequence of time slots, diffract a respective portion of the light beam into the waveguide at a respective angle corresponding to the respective field angle; and an exit pupil expander coupled to a second lateral region of the waveguide and configured to direct each respective portion of the light beam out of the waveguide toward the eye of the viewer at the respective field angle, thereby projecting the image light field to the eye of the viewer.
A vibration sensor (100; 200) comprising: a probe body (102; 202) with a vibration isolator (104; 204) operatively connected to the probe body for isolation of the probe body from vibrations of a structure to be monitored for vibration; a waveguide (108; 208) operatively connected to the probe body to convey microwaves to and from a surface (106; 206) for sensing vibration of the structure to be monitored for vibration; and a cap (110; 210) operatively connected to the vibration isolator (104; 204) with a space bounded by the probe body (102; 202) and the cap for passage of microwaves to and from the wave guide (108; 208), wherein the cap is configured and adapted to be mounted to a surface (106; 206) for sensing vibration thereof. a probe body (102; 202) with a vibration isolator (104; 204) operatively connected to the probe body for isolation of the probe body from vibrations of a structure to be monitored for vibration; a waveguide (108; 208) operatively connected to the probe body to convey microwaves to and from a surface (106; 206) for sensing vibration of the structure to be monitored for vibration; and a cap (110; 210) operatively connected to the vibration isolator (104; 204) with a space bounded by the probe body (102; 202) and the cap for passage of microwaves to and from the wave guide (108; 208), wherein the cap is configured and adapted to be mounted to a surface (106; 206) for sensing vibration thereof.
Shaped toilet cleaner block comprising: a. a surfactant mix comprising: i. 10 to 30 wt% alkyl benzene sulphonate; ii. 1 to 25 wt% primary alcohol sulphate; iii. 1 to 15 wt% alkyl poly glycoside; b. 30 to 85 wt% filler; c. 0 to 7 wt% polyol with a carbon chain length of 2 to 4; d. 0 to 2 wt% water; wherein the weight ratio of (alkyl benzene sulphonate + alkyl poly glycoside)/primary alcohol sulphate is from 0.5:1 to 7:1. a. a surfactant mix comprising: i. 10 to 30 wt% alkyl benzene sulphonate; ii. 1 to 25 wt% primary alcohol sulphate; iii. 1 to 15 wt% alkyl poly glycoside; i. 10 to 30 wt% alkyl benzene sulphonate; ii. 1 to 25 wt% primary alcohol sulphate; iii. 1 to 15 wt% alkyl poly glycoside; b. 30 to 85 wt% filler; c. 0 to 7 wt% polyol with a carbon chain length of 2 to 4; d. 0 to 2 wt% water;
Method to convert black soldier fly larvae into nutrient streams, comprising the steps of: a) providing fresh black soldier fly larvae and preparing a pulp thereof; b) heating the pulp for 50-100 seconds at a temperature of 80°C-93°C; c) subjecting the heated pulp to a physical separation step thereby obtaining a fat fraction, an aqueous protein fraction and a solid-containing fraction. a) providing fresh black soldier fly larvae and preparing a pulp thereof; b) heating the pulp for 50-100 seconds at a temperature of 80°C-93°C; c) subjecting the heated pulp to a physical separation step thereby obtaining a fat fraction, an aqueous protein fraction and a solid-containing fraction.
A therapeutic composition comprising free amino acids lysine, glycine, threonine, valine, tyrosine, aspartic acid, isoleucine, tryptophan, and serine; and optionally, therapeutically acceptable carriers, electrolytes, buffering agents, and flavoring agents for use in a method of improving lung function, wherein the method comprises administering, to a subject with a radiation-induced lung injury or lung complication, an effective amount of said composition.