mhurhangee/patent-ind-claim-en huggingface dataset:
A system for detecting a lung pulse in a patient, comprising: an ultrasound probe configured to obtain ultrasound imaging data representative of a lung of the patient; and a processor communicatively coupled to the ultrasound probe , the processor configured to generate, using the ultrasound imaging data received from the ultrasound probe , an M-mode image including a pleural line of the lung, the M-mode image comprising a plurality of samples obtained along a scan line , characterized in that the processor is further configured to: generate, from the M-mode image , a difference image (250a,b,c,d) comprising a plurality of difference lines (252a,b,c,d) generated by subtracting adjacent samples of the M-mode image, each of the plurality of difference lines comprising a plurality of intensity values along an axial direction; analyze the difference image to determine whether the difference image includes a periodic signal corresponding to a heartbeat of the patient; and output, to a display in communication with the processor , a graphical representation of detecting the lung pulse based on determining that the difference image includes the periodic signal corresponding to the heartbeat of the patient. an ultrasound probe configured to obtain ultrasound imaging data representative of a lung of the patient; and a processor communicatively coupled to the ultrasound probe , the processor configured to generate, using the ultrasound imaging data received from the ultrasound probe , an M-mode image including a pleural line of the lung, the M-mode image comprising a plurality of samples obtained along a scan line , characterized in that the processor is further configured to: generate, from the M-mode image , a difference image (250a,b,c,d) comprising a plurality of difference lines (252a,b,c,d) generated by subtracting adjacent samples of the M-mode image, each of the plurality of difference lines comprising a plurality of intensity values along an axial direction; analyze the difference image to determine whether the difference image includes a periodic signal corresponding to a heartbeat of the patient; and output, to a display in communication with the processor , a graphical representation of detecting the lung pulse based on determining that the difference image includes the periodic signal corresponding to the heartbeat of the patient. generate, from the M-mode image , a difference image (250a,b,c,d) comprising a plurality of difference lines (252a,b,c,d) generated by subtracting adjacent samples of the M-mode image, each of the plurality of difference lines comprising a plurality of intensity values along an axial direction; analyze the difference image to determine whether the difference image includes a periodic signal corresponding to a heartbeat of the patient; and output, to a display in communication with the processor , a graphical representation of detecting the lung pulse based on determining that the difference image includes the periodic signal corresponding to the heartbeat of the patient.
A heat-source-side unit comprising: a body case having an air inlet and an air outlet ; a heat exchanger (103A1) contained in the body case and disposed to an air passage between the air inlet and the air outlet ; and a damper disposed above the heat exchanger (103A1) and configured to open and close the air passage. wherein the damper is closed in a defrosting operation that removes frost on the heat exchanger (103A1), further comprising an air-sending device configured to generate an airflow such that air outside the body case is taken in through the air inlet , passed through the heat exchanger (103A1), and blown out through the air outlet , wherein the air-sending device is stopped in the defrosting operation. characterized in that the air-sending device is disposed between the heat exchanger (103A1) and the damper . a body case having an air inlet and an air outlet ; a heat exchanger (103A1) contained in the body case and disposed to an air passage between the air inlet and the air outlet ; and a damper disposed above the heat exchanger (103A1) and configured to open and close the air passage. wherein the damper is closed in a defrosting operation that removes frost on the heat exchanger (103A1), further comprising an air-sending device configured to generate an airflow such that air outside the body case is taken in through the air inlet , passed through the heat exchanger (103A1), and blown out through the air outlet , wherein the air-sending device is stopped in the defrosting operation. characterized in that the air-sending device is disposed between the heat exchanger (103A1) and the damper .
An apparatus of an evolved node B, eNB, in a Single Frequency Network, SFN, the apparatus comprising one or more processors and memory configured to: monitor an uplink, UL, transmission signal received from a User Equipment, UE, in the SFN via a plurality of remote radio heads, RRHs; determine a mobility status of the UE according to the UL transmission signal; and periodically process, for transmission in a downlink transmission signal to the UE, channel propagation conditions and mobility status of the UE with respect to each of the plurality of RRHs; and provide the channel propagation conditions to the UE to enable the UE to track movement of the UE relative to one or more of the plurality of RRHs and to estimate channel characteristics based on the channel propagation conditions and mobility status of the UE with respect to each of the plurality of RRHs. monitor an uplink, UL, transmission signal received from a User Equipment, UE, in the SFN via a plurality of remote radio heads, RRHs; determine a mobility status of the UE according to the UL transmission signal; and periodically process, for transmission in a downlink transmission signal to the UE, channel propagation conditions and mobility status of the UE with respect to each of the plurality of RRHs; and provide the channel propagation conditions to the UE to enable the UE to track movement of the UE relative to one or more of the plurality of RRHs and to estimate channel characteristics based on the channel propagation conditions and mobility status of the UE with respect to each of the plurality of RRHs.
Process for the simultaneous preparation of azelaic and pelargonic acids, comprising the following successive steps: (a) providing a liquid stock solution of oleic acid; (b) dispersing an amount of water in the liquid stock solution of oleic acid provided in step (a) without using carboxylic acid as organic solvent, it being specified that the mass percentage of water based on the mass of liquid stock solution of oleic acid when the dispersion is carried out is at least 15% and at most 34%; (c) bringing the dispersion of water in the liquid stock solution of oleic acid, obtained in step (b), into contact with ozone gas, wherein no organic solvents are used, the process of transforming oleic acid into azelaic and pelargonic acids being carried out until azelaic and pelargonic acids are obtained using water as the only solvent added to the reaction mixture, and wherein the process is carried out until azelaic and pelargonic acids are obtained without using any homogeneous or heterogeneous catalyst or any strong acid or any strong base. (a) providing a liquid stock solution of oleic acid; (b) dispersing an amount of water in the liquid stock solution of oleic acid provided in step (a) without using carboxylic acid as organic solvent, it being specified that the mass percentage of water based on the mass of liquid stock solution of oleic acid when the dispersion is carried out is at least 15% and at most 34%; (c) bringing the dispersion of water in the liquid stock solution of oleic acid, obtained in step (b), into contact with ozone gas,
Locking device for attaching a wear part to the blade of an earth moving machine , comprising: - a wedge structure with a front face and a back face , one of said faces having an inclination respect to the other , - a C-clamp member with a back face with two legs and a front face, and - a threaded bolt between the C-clamp member and the wedge structure , - said wedge structure comprising in its back face a slot along its length and stopping means , - said C-clamp member comprising in its front face a slot , characterised in that said slot is interrupted by a housing placed within said slot to prevent the axial displacement of the bolt , and a nut placed within said slot too in which it cannot rotate, being said nut screwed to the bolt allowing the axial displacement of the nut along the slot without rotating when the bolt rotates without axial displacement, such that when the slot of the wedge structure faces the slot of the C-clamp member , the nut is placed in both slots , and when the bolt rotates, the nut without rotation moves axially along the slots and within contact surfaces between the C-clamp member and the wedge structure pushing said nut the stopping means of the wedge . - a wedge structure with a front face and a back face , one of said faces having an inclination respect to the other , - a C-clamp member with a back face with two legs and a front face, and - a threaded bolt between the C-clamp member and the wedge structure , - said wedge structure comprising in its back face a slot along its length and stopping means , - said C-clamp member comprising in its front face a slot , characterised in that said slot is interrupted by a housing placed within said slot to prevent the axial displacement of the bolt , and a nut placed within said slot too in which it cannot rotate, being said nut screwed to the bolt allowing the axial displacement of the nut along the slot without rotating when the bolt rotates without axial displacement,
A method for lining a pipeline without an annular space, said pipeline having a first diameter substantially extending along a longitudinal axis (X), characterised in that it comprises the following steps: - inserting a first tube portion made of viscoelastic material into the pipeline by translation along the longitudinal axis (X), with said first tube portion having a second diameter smaller than the first diameter in order to form a pipe ; - juxtaposing a second tube portion made of viscoelastic material with a second diameter of the pipe in line with the pipe along the longitudinal axis (X); - welding the second tube portion to the pipe so as to extend the pipe ; - positioning the pipe in the pipeline ; - filling the pipe with a liquid and pressurising the liquid until the pipe is inflated so as to press against the pipeline ; - viscoelastically deforming the pipe , and in that it comprises, prior to the insertion step , a step of manufacturing tube portions made of viscoelastic material having a second diameter that is lower than the first diameter and having a linear mass equal to a linear mass of a tube portion having a first diameter , so that each tube portion undergoes only one viscoelastic deformation, during the lining method, that corresponds to the viscoelastic deformation allowing it to transition from the initial lower diameter, i.e., the second diameter , to the diameter of the pipeline, i.e., the first diameter . - inserting a first tube portion made of viscoelastic material into the pipeline by translation along the longitudinal axis (X), with said first tube portion having a second diameter smaller than the first diameter in order to form a pipe ; - juxtaposing a second tube portion made of viscoelastic material with a second diameter of the pipe in line with the pipe along the longitudinal axis (X); - welding the second tube portion to the pipe so as to extend the pipe ; - positioning the pipe in the pipeline ; - filling the pipe with a liquid and pressurising the liquid until the pipe is inflated so as to press against the pipeline ; - viscoelastically deforming the pipe ,
Method for processing poultry manure for getting organic fertilizer and biogas, comprising steps of: feeding manure to a bioreactor with further fermentation and emission of biogas, separation of a mass obtained through fermentation into solid fraction and filtrate by mechanical means, characterized in that a larger part of a filtrate is fed to a bioreactor input and mixed with poultry manure; the mixing is performed in a separate mixing zone where a mixture is stirred, hydrolyzed and subsequently fed to a fermentation zone designed by a "fixed film" technology where it is stirred again; a part of the filtrate that is fed to the mixing zone is adjusted so that a moisture of the mixture of the filtrate and manure should be in the range of 86 and 92 %; before feeding to the fermentation zone, the mixture is conditioned at +25°C or higher for 24 hours minimum; periodicity of the mixture feeding does not exceed 24 hours and a weight of a one portion of the mixture feeding should not exceed 9 % of the total weight of the mixture in the bioreactor; fermentation in the zone according to the "fixed film" technology runs at a temperature of +40°C...+50°C; and periodicity of the mixture feeding from the mixing zone to the fermentation zone as well as a weight of the one portion of mixture feeding ensure hydraulic dwell time of the mixture in the bioreactor from 11 to 14 days.
A flow delivery article to deliver a gaseous flow to the mouth of a user, comprising: a flow control component to control the passage of at least one flow to provide a plurality of flow peaks at the output of the flow delivery article during a draw on the flow delivery article , wherein the flow delivery article comprises a smoking article. a flow control component to control the passage of at least one flow to provide a plurality of flow peaks at the output of the flow delivery article during a draw on the flow delivery article , wherein the flow delivery article comprises a smoking article.
A method for the manipulation of particles (BEAD) by means of an at least a two-dimensional array of blocks (BLOCK_i,j) of electrodes, comprising the steps of: i. generating a first configuration of field of force (F_i), which presents at least one first point (CAGE_i,j) and at least one second point (CAGE_i,j+1) of stable equilibrium for said particles (BEAD), said points being positioned, respectively, on a first block (BLOCK_i,j) and on a second block (BLOCK_i,j+1) of said array immediately adjacent to the first, and being such that at least one particle (BEAD) is entrapped in said first point of stable equilibrium (CAGE_i,j); ii. generating at least one second configuration of field of force (F_ii) such that a particle (BEAD) is pushed within a basin of attraction of said at least one second point of stable equilibrium (CAGE_i,j+1); and iii. generating again said first configuration of field of force (F_i), such that said particle (BEAD) is attracted towards the second point of stable equilibrium (CAGE_i,j+1); said method being characterized in that each said block (BLOCK_i,j) of electrodes of the array is electrically connected to two groups of voltages (Vrow_i[p], Vcol_j[q]) distributed in the array, respectively, in rows and columns and connected electrically to the blocks of electrodes that share the same row or column, said first configuration (F_i) and said second configuration (F_ii) of field of force being generated by means of at least two different configurations of first voltages (Vrow_i [p] and Vcol_j [q]) applied to the electrodes of the first block of the array (BLOCK_i,j) and of second voltages (Vrow_i [p] and Vcol_j +1[q]) applied to the electrodes of the second block of the array (BLOCK_i,j +1). i. generating a first configuration of field of force (F_i), which presents at least one first point (CAGE_i,j) and at least one second point (CAGE_i,j+1) of stable equilibrium for said particles (BEAD), said points being positioned, respectively, on a first block (BLOCK_i,j) and on a second block (BLOCK_i,j+1) of said array immediately adjacent to the first, and being such that at least one particle (BEAD) is entrapped in said first point of stable equilibrium (CAGE_i,j); ii. generating at least one second configuration of field of force (F_ii) such that a particle (BEAD) is pushed within a basin of attraction of said at least one second point of stable equilibrium (CAGE_i,j+1); and iii. generating again said first configuration of field of force (F_i), such that said particle (BEAD) is attracted towards the second point of stable equilibrium (CAGE_i,j+1);
Method for assembling a stone on to a mounting , said stone being cut so that it has a table , a crown , a girdle and a pavilion , said assembly method comprising the following steps: a) providing a substrate comprising a hot-melt adhesive layer ; b) positioning the stone on the hot-melt adhesive layer of the substrate ; c) heating the hot-melt adhesive layer ; d) exerting a pressure on the stone so that part of the crown or part of the pavilion of the stone can be sunk into the sufficiently softened hot-melt adhesive layer , leaving the rest of the stone exposed; e) positioning a setting sheet around the stone above the adhesive layer , so as to form a peripheral free space between the setting sheet and said stone , at least at the level of the girdle and of areas of the crown and the pavilion adjacent to the girdle ; f) depositing a metallic layer by galvanic growth in said peripheral free space from the setting sheet , at least at the level of the girdle and of the areas of the crown and the pavilion adjacent to the girdle , so as to trap said girdle in said metallic layer , the metallic layer and the setting sheet forming said mounting ; g) releasing said stone and its mounting from the substrate . a) providing a substrate comprising a hot-melt adhesive layer ; b) positioning the stone on the hot-melt adhesive layer of the substrate ; c) heating the hot-melt adhesive layer ; d) exerting a pressure on the stone so that part of the crown or part of the pavilion of the stone can be sunk into the sufficiently softened hot-melt adhesive layer , leaving the rest of the stone exposed; e) positioning a setting sheet around the stone above the adhesive layer , so as to form a peripheral free space between the setting sheet and said stone , at least at the level of the girdle and of areas of the crown and the pavilion adjacent to the girdle ; f) depositing a metallic layer by galvanic growth in said peripheral free space from the setting sheet , at least at the level of the girdle and of the areas of the crown and the pavilion adjacent to the girdle , so as to trap said girdle in said metallic layer , the metallic layer and the setting sheet forming said mounting ; g) releasing said stone and its mounting from the substrate .
A battery module comprising: a battery cell assembly comprising a plurality of battery cells stacked with one another; end plates configured to cover front and rear portions of the battery cell assembly at one side of each of the end plates via screws; and a fixing holder configured to be mounted at the other side of each of the end plates in order to at least partially cover the battery cell assembly, and to protrude from front and rear portions of the end plates, said fixing holder comprises: a supporter configured to support the battery cell assembly; end plate mounting portions extending from the supporter and configured to be mounted in the end plates; and protrusions extending from the end plate mounting portions and configured to protrude from the front and rear portions of the end plates wherein each of the end plate mounting portions is bent at least once and comprises a first mounting portion extending upward from the supporter and a second mounting portion extending downward from the first mounting portion and connected to the protrusions. a battery cell assembly comprising a plurality of battery cells stacked with one another; end plates configured to cover front and rear portions of the battery cell assembly at one side of each of the end plates via screws; and a fixing holder configured to be mounted at the other side of each of the end plates in order to at least partially cover the battery cell assembly, and to protrude from front and rear portions of the end plates, said fixing holder comprises: a supporter configured to support the battery cell assembly; end plate mounting portions extending from the supporter and configured to be mounted in the end plates; and protrusions extending from the end plate mounting portions and configured to protrude from the front and rear portions of the end plates a supporter configured to support the battery cell assembly; end plate mounting portions extending from the supporter and configured to be mounted in the end plates; and protrusions extending from the end plate mounting portions and configured to protrude from the front and rear portions of the end plates
A headphone device comprising an adjustable headband and a pair of sound outputting ear cups one at each end of the headband, the ear cups comprising an ear cushion which is a hybrid of supra-aural and circum-aural ear cups, wherein the upper part of the ear cushion fits over the top of a user's ear and the lower part of the ear cushion rests on the ear lobe of the user's ear; and wherein the headband comprises a central core generally U-shaped mid-section inserted into which are movably engageable legs each of which supports one of the ear cups such that the headband fits more closely to a person's head; and wherein each ear cushion is provided with an inner cavity about which is located a foam cushioned rim including an upper rim contactable with a user's head, which fits over the top of the user's ear and a lower rim contactable with the lower part of a user's ear, the foam cushion material of the upper rim being of a lower density then the foam cushion material of the lower rim; wherein each ear cushion is removable and replaceable by a like ear cushion, in which each ear cushion is mounted on a rotatable disc which is interengaged with a base surface in the ear cup, to enable the ear cushion to be rotatable about its axis and in which a plurality of arcuately formed slots are positioned on the base surface into which are inserted interengaging co-operating lugs positioned on the rotatable disc, wherein the upper part of the ear cushion fits over the top of a user's ear and the lower part of the ear cushion rests on the ear lobe of the user's ear; and wherein the headband comprises a central core generally U-shaped mid-section inserted into which are movably engageable legs each of which supports one of the ear cups such that the headband fits more closely to a person's head; and wherein each ear cushion is provided with an inner cavity about which is located a foam cushioned rim including an upper rim contactable with a user's head, which fits over the top of the user's ear and a lower rim contactable with the lower part of a user's ear, the foam cushion material of the upper rim being of a lower density then the foam cushion material of the lower rim; wherein each ear cushion is removable and replaceable by a like ear cushion, in which each ear cushion is mounted on a rotatable disc which is interengaged with a base surface in the ear cup, to enable the ear cushion to be rotatable about its axis and in which a plurality of arcuately formed slots are positioned on the base surface into which are inserted interengaging co-operating lugs positioned on the rotatable disc,