mhurhangee/patent-ind-claim-en huggingface dataset:
Gas-liquid separator for separating a multiphase fluid stream containing hydrocarbons, comprising: - an introduction duct , the introduction duct defining an introduction opening for receiving the multiphase fluid stream; - a static first separation stage extending along a longitudinal axis (A-A'), connected with the introduction duct , the first separation stage comprising an outer wall , an inner wall and at least an inner baffle located between the outer wall and the inner wall , the inner baffle being configured to induce an helical movement of the multiphase fluid stream around the longitudinal axis (A-A') to drive a liquid contained in the fluid stream onto the outer wall and a gas contained in the multiphase fluid stream onto the inner wall ; characterized in that the outer wall has at least a lateral orifice for evacuating the liquid separated along the inner baffle , the or each lateral orifice extending along the or each inner baffle and defining a lateral staged evacuation of the liquid in an liquid evacuation canal along the outer wall , the first separation stage having at least an upper gas evacuation opening located above the inner baffle , the separator comprising a second separation stage , located in the liquid evacuation canal , below the first separation stage , the second separation stage comprising at least an outer baffle configured to induce an helical movement of the liquid to drive a residual gas contained in the liquid towards the introduction duct , the outer baffle being a continuous helical baffle connected to the outer wall , the outer baffle being inserted in the liquid evacuation canal along the introduction duct below the first separation stage , the introduction duct defining a least a gas recycling passage , emerging in the introduction duct , the liquid evacuation canal being connected to the inside of the introduction duct by the gas recycling passage . - an introduction duct , the introduction duct defining an introduction opening for receiving the multiphase fluid stream; - a static first separation stage extending along a longitudinal axis (A-A'), connected with the introduction duct , the first separation stage comprising an outer wall , an inner wall and at least an inner baffle located between the outer wall and the inner wall , the inner baffle being configured to induce an helical movement of the multiphase fluid stream around the longitudinal axis (A-A') to drive a liquid contained in the fluid stream onto the outer wall and a gas contained in the multiphase fluid stream onto the inner wall ;
A computer-implemented method for dynamically adjusting a 3D model , wherein the 3D model is a dental model, and the method comprising the steps of: identifying a 3D model engagement process, wherein the engagement process includes deforming/modifying a surface of the 3D model; obtaining a localized area of the 3D model proximate to a location of the 3D mode being worked on; characterised in that the method further comprises automatically adjusting the 3D model based on the obtained localized area and the engagement process, wherein the adjusting includes changing the 3D model for affording a user an unobstructed view of a surface of the model being worked on. identifying a 3D model engagement process, wherein the engagement process includes deforming/modifying a surface of the 3D model; obtaining a localized area of the 3D model proximate to a location of the 3D mode being worked on; characterised in that the method further comprises automatically adjusting the 3D model based on the obtained localized area and the engagement process, wherein the adjusting includes changing the 3D model for affording a user an unobstructed view of a surface of the model being worked on.
A torque and angle of rotation detection system comprising a rotor unit that is able to rotate about an axis of rotation (X); comprising a stator unit arranged in a stationary manner and separated from the rotor unit by an air gap arranged radially with respect to the axis of rotation (X); wherein the rotor unit comprises strain gauges which detect a torque acting onto the rotor unit ; wherein the rotor unit comprises a plurality of dipole magnets arranged spaced apart from each other; wherein the stator unit comprises a magnetic field sensor that measures magnetic fields of the dipole magnets during rotation of the rotor unit ; wherein the stator unit comprises a primary coil and the rotor unit comprises a secondary coil ; and wherein a primary electrical voltage in the primary coil generates a secondary electrical voltage in the secondary coil ; characterized in that each of the dipole magnets has a remanence of more than/equal to 1000mT, preferably of more than/equal to 1400mT; and in that the secondary coil comprises a plurality of ferrite elements .
Method for autonomous speed planning of an at least semi-autonomously controlled mobile actor restricted to a predetermined path, having the steps: - capture of sensor data (SD) relating to the environment (U) of the mobile actor , - detection of objects (O) in the environment (U) based on the captured sensor data (SD), - division of the objects (O) into different object classes (OK), wherein each of the object classes (OK) is assigned at least one movement model (BM), - determination of a future movement (ZB) and/or position (P) of the objects (O) based on the at least one assigned movement model (BW) in each case, - determination of a speed profile (GP) of the mobile actor , in which a predetermined risk criterion (RK) is met, based on the future movement (ZB) and/or position (P) of the objects (O), characterised in that - the determination of a speed profile (GP) takes place with the help of a mixed-discrete-continuous optimisation method, wherein the discrete component takes into account a plurality of movement models (BM) per object (O), and - an "anytime optimisation algorithm" is used. - capture of sensor data (SD) relating to the environment (U) of the mobile actor , - detection of objects (O) in the environment (U) based on the captured sensor data (SD), - division of the objects (O) into different object classes (OK), wherein each of the object classes (OK) is assigned at least one movement model (BM), - determination of a future movement (ZB) and/or position (P) of the objects (O) based on the at least one assigned movement model (BW) in each case, - determination of a speed profile (GP) of the mobile actor , in which a predetermined risk criterion (RK) is met, based on the future movement (ZB) and/or position (P) of the objects (O), - the determination of a speed profile (GP) takes place with the help of a mixed-discrete-continuous optimisation method, wherein the discrete component takes into account a plurality of movement models (BM) per object (O), and - an "anytime optimisation algorithm" is used.
Method of producing a heat sink by an additive manufacturing method, in which a cooling structure is additively manufactured on a base plate , wherein the base plate consists of a metal-ceramic composite including a ceramic phase and a metallic phase , and the cooling structure is produced from a metal or a metal alloy, and wherein a purely metallic bond is formed between the material of the cooling structure and the metallic phase of the base plate during the solidifying of the material of the cooling structure , wherein the base plate is inserted into a system for additively manufacturing the heat sink and the cooling structure is additively manufactured on the base plate, wherein an electronic circuit has been premounted on the base plate .
A pig which is insertable at least partly within a fabric liner sleeve located in a duct and which is capable of heating the liner sleeve in situ in the duct to melt thermoplastic material of the liner sleeve to form, on subsequent cooling of the melted thermoplastic material, a rigid liner in the duct, wherein the pig comprises: a gas inlet for receiving pressurised gas; a heating chamber in which the pressurised gas is heated; and a gas outlet via which pressurised gas heated in the heating chamber is deliverable to the fabric liner sleeve; wherein the pig comprises a tree diffuser located in the heating chamber via which pressurised gas can be delivered into the heating chamber ; and the tree diffuser has a plurality of branch pipes (30, 31, 32; 27, 28, 29; 34, 35, 36, 37, 38, 39) each comprising at least one gas delivery aperture, each branch pipe (30, 31, 32; 27, 28, 29; 34, 35, 36, 37, 38, 39) extending outwardly from a trunk portion of the tree diffuser . a gas inlet for receiving pressurised gas; a heating chamber in which the pressurised gas is heated; and a gas outlet via which pressurised gas heated in the heating chamber is deliverable to the fabric liner sleeve; wherein the pig comprises a tree diffuser located in the heating chamber via which pressurised gas can be delivered into the heating chamber ; and the tree diffuser has a plurality of branch pipes (30, 31, 32; 27, 28, 29; 34, 35, 36, 37, 38, 39) each comprising at least one gas delivery aperture, each branch pipe (30, 31, 32; 27, 28, 29; 34, 35, 36, 37, 38, 39) extending outwardly from a trunk portion of the tree diffuser .
A method of transmitting whitespace map, WSM, information from a first station, STA, to a second STA, the method comprising: configuring (S230, S240) a value of map version bits contained in the WSM information; and transmitting (S270) the WSM information containing the value of the map version bits to the second STA, characterized in that : based on the WSM information being used to change an availability for a channel indicated by the WSM information, the value of the map version bits is set to a first value corresponding to a WSM update count obtaining based on a modulo operation, and based on the WSM information being not used to change the availability for the channel indicated by the WSM information, the value of the map version bits is set to a second value greater than the WSM update count. configuring (S230, S240) a value of map version bits contained in the WSM information; and transmitting (S270) the WSM information containing the value of the map version bits to the second STA, characterized in that : based on the WSM information being used to change an availability for a channel indicated by the WSM information, the value of the map version bits is set to a first value corresponding to a WSM update count obtaining based on a modulo operation, and based on the WSM information being not used to change the availability for the channel indicated by the WSM information, the value of the map version bits is set to a second value greater than the WSM update count. based on the WSM information being used to change an availability for a channel indicated by the WSM information, the value of the map version bits is set to a first value corresponding to a WSM update count obtaining based on a modulo operation, and based on the WSM information being not used to change the availability for the channel indicated by the WSM information, the value of the map version bits is set to a second value greater than the WSM update count.
A medical headgear fabric comprising: a skin-facing fabric layer; an outer fabric layer ; and a layer of rigid material located between the fabric layers, characterised in that the layers are thermoformed together. a skin-facing fabric layer; an outer fabric layer ; and a layer of rigid material located between the fabric layers, characterised in that the layers are thermoformed together.
A sinker equipped with a lubrication oil channeling and separating structure and formed to serve as an element of a knitting machine which includes at least a cylinder , a sinker ring , an oil ejection nozzle located above the sinker ring and a yarn feeder located above the cylinder and the sinker ring , the cylinder including a plurality of needle troughs to hold respectively a knitting needle , the sinker ring including a plurality of sinker troughs corresponding to the needle troughs to hold the sinker , the sinker including: a base slidable in the sinker troughs to generate friction therewith, a driving nub located above the base ; a knitting portion located at a front end of the base ; and an oil sprinkling zone interposed between the base and the knitting portion placeable in a position corresponding to the oil ejection nozzle ; wherein the sinker comprises a lubrication oil channeling and separating structure is interposed between the knitting portion and the oil sprinkling zone , and the lubrication oil channeling and separating structure includes a separating slot formed upward from a lower side, a flow channeling portion at the separating slot and close to the oil sprinkling zone , an oil blocking portion at the separating slot and close to the knitting portion , and a jutting debris push portion at the separating slot and below the flow channeling portion , wherein the oil blocking portion is interposed between the separating slot and the knitting portion , and locatable outside the sinker trough while the sinker is fully withdrawn or pushed out on the sinker ring , the sinker being characterised in that the flow channeling portion is inclined downward from a top end of the flow channeling portion toward the oil blocking portion . a base slidable in the sinker troughs to generate friction therewith, a driving nub located above the base ; a knitting portion located at a front end of the base ; and an oil sprinkling zone interposed between the base and the knitting portion placeable in a position corresponding to the oil ejection nozzle ; wherein the sinker comprises a lubrication oil channeling and separating structure is interposed between the knitting portion and the oil sprinkling zone , and the lubrication oil channeling and separating structure includes a separating slot formed upward from a lower side, a flow channeling portion at the separating slot and close to the oil sprinkling zone , an oil blocking portion at the separating slot and close to the knitting portion , and a jutting debris push portion at the separating slot and below the flow channeling portion , wherein the oil blocking portion is interposed between the separating slot and the knitting portion , and locatable outside the sinker trough while the sinker is fully withdrawn or pushed out on the sinker ring , the sinker being characterised in that the flow channeling portion is inclined downward from a top end of the flow channeling portion toward the oil blocking portion .
A measurement cartridge for a biometric system, comprising: a reagent container configured to accommodate a liquid reagent and having an upper portion sealed with a sealing film ; a capillary module located above the reagent container and including a capillary tube for collecting a sample through capillary action, the capillary tube being introduced into the reagent container by rupturing a contact portion, which comes into contact with the capillary tube, of the sealing film with the pressure applied thereto; characterized in that the measurement cartridge further comprises: a reagent rod located above the reagent container and including a plurality of dry reagent accommodating portions in which dry agents are accommodated, the reagent rod being introduced into the reagent container by rupturing a contact portion, which comes into contact with the capillary tube, of the sealing film by an applied pressure. a reagent container configured to accommodate a liquid reagent and having an upper portion sealed with a sealing film ; a capillary module located above the reagent container and including a capillary tube for collecting a sample through capillary action, the capillary tube being introduced into the reagent container by rupturing a contact portion, which comes into contact with the capillary tube, of the sealing film with the pressure applied thereto; characterized in that the measurement cartridge further comprises: a reagent rod located above the reagent container and including a plurality of dry reagent accommodating portions in which dry agents are accommodated, the reagent rod being introduced into the reagent container by rupturing a contact portion, which comes into contact with the capillary tube, of the sealing film by an applied pressure.
An apparatus comprising: heat transfer means , comprising a heat pipe , configured to transfer heat from a first location proximate to a location on a subject's body to a location proximate to the subject's sweat glands at a different location on their body; and sweat transfer means configured to transfer sweat from the location proximate to a subject's sweat glands to one or more sensors wherein the one or more sensors are configured to sense one or more biometric parameters from the subject's sweat. heat transfer means , comprising a heat pipe , configured to transfer heat from a first location proximate to a location on a subject's body to a location proximate to the subject's sweat glands at a different location on their body; and sweat transfer means configured to transfer sweat from the location proximate to a subject's sweat glands to one or more sensors wherein the one or more sensors are configured to sense one or more biometric parameters from the subject's sweat.
Sealing system for nuclear containers, sealing a container lid of a nuclear container to a container body of said nuclear container, said sealing system comprising: at least three tags adapted to be mounted to one of said container lid or said container body , each tag having a unique ID and comprising a first RF transceiver configured to transmit, in use, a respective first RF signal; at least three anchors adapted to be mounted to the other one of said container lid or said container body , each anchor having a unique ID and comprising a second RF transceiver configured to receive, in use, the first RF signals; and a master unit , coupled for communication with the at least three anchors ; wherein the master unit is adapted to (i) determine, associated with the ID for each tag , a respective current 3D position, based on the received first RF signals, (ii) store previously determined 3D positions for each tag , and (iii) generate an alert and/or a timestamp and/or a log entry if it determines that separation between the current 3D position of one or more of the tags and a respective previously determined 3D position is greater than a predetermined distance threshold. at least three tags adapted to be mounted to one of said container lid or said container body , each tag having a unique ID and comprising a first RF transceiver configured to transmit, in use, a respective first RF signal; at least three anchors adapted to be mounted to the other one of said container lid or said container body , each anchor having a unique ID and comprising a second RF transceiver configured to receive, in use, the first RF signals; and a master unit , coupled for communication with the at least three anchors ; wherein the master unit is adapted to (i) determine, associated with the ID for each tag , a respective current 3D position, based on the received first RF signals, (ii) store previously determined 3D positions for each tag , and (iii) generate an alert and/or a timestamp and/or a log entry if it determines that separation between the current 3D position of one or more of the tags and a respective previously determined 3D position is greater than a predetermined distance threshold. (i) determine, associated with the ID for each tag , a respective current 3D position, based on the received first RF signals, (ii) store previously determined 3D positions for each tag , and (iii) generate an alert and/or a timestamp and/or a log entry if it determines that separation between the current 3D position of one or more of the tags and a respective previously determined 3D position is greater than a predetermined distance threshold.
- Device for the laser treatment of trousers comprising [a] a laser beam generating equipment , wherein said equipment defines an emission axis , a first opening angle around said emission axis and a second opening angle around said emission axis , in a plane perpendicular to said first opening angle , such that said equipment is suitable for emitting said laser beam within a pyramid defined by said emission axis and said first and second opening angles, and [b] a work station with two mannequins , wherein each mannequin comprises an upper support structure, with a fixing area for the upper part of a pair of trousers and from which two legs , suitable for being housed inside the trouser legs of said pair of trousers, extend, wherein each leg defines a longitudinal axis , wherein the two longitudinal axis of the two legs of each mannequin define a mannequin plane , wherein each mannequin defines a longitudinal symmetry axis arranged on said mannequin plane , wherein each one of the mannequins is oriented towards said equipment so that the emission axis strikes the mannequin plane at an angle of less than 90° and each mannequin has at least one of its legs within said pyramid , wherein the laser generating equipment comprises a laser beam generating unit and a head which, while as a whole said head being fixed with respect to the laser beam generating unit so that the head is not suitable for directing its pyramid from one mannequin to another, is suitable for directing said laser beam from one mannequin to the other of said two mannequins and in any direction comprised within said pyramid .
A dispensing apparatus for dispensing fluids to a patient comprising: (a) an outer housing ; (b) an expandable housing disposed within said outer housing , said expandable housing having a fluid reservoir provided with an inlet for permitting fluid flow into said fluid reservoir and an outlet for permitting fluid flow from said fluid reservoir ; (c) stored energy means disposed within said outer housing for exerting a force upon said first expandable housing to cause the fluid contained within said fluid reservoir to controllably flow through said outlet , said stored energy means comprising a constant force extension spring carried within said outer housing , said constant force extension spring being retractable to cause fluid flow from said fluid reservoir ; (d) fill means carried by said outer housing for filling said reservoir with the fluid to be dispensed; and (e) dispensing means carried by said outer housing for dispensing fluid to the patient, wherein said expandable housing comprises a bellows structure having an accordion-like side wall and, said bellows structure being movable from a substantially collapsed configuration to a substantially expanded configuration by fluid flowing into said fluid reservoir , characterized in that said fill means comprise first and second fill vials receivable within said outer housing, said second fill vial contains a diluent and a lyophilized drug. (a) an outer housing ; (b) an expandable housing disposed within said outer housing , said expandable housing having a fluid reservoir provided with an inlet for permitting fluid flow into said fluid reservoir and an outlet for permitting fluid flow from said fluid reservoir ; (c) stored energy means disposed within said outer housing for exerting a force upon said first expandable housing to cause the fluid contained within said fluid reservoir to controllably flow through said outlet , said stored energy means comprising a constant force extension spring carried within said outer housing , said constant force extension spring being retractable to cause fluid flow from said fluid reservoir ; (d) fill means carried by said outer housing for filling said reservoir with the fluid to be dispensed; and (e) dispensing means carried by said outer housing for dispensing fluid to the patient, wherein said expandable housing comprises a bellows structure having an accordion-like side wall and, said bellows structure being movable from a substantially collapsed configuration to a substantially expanded configuration by fluid flowing into said fluid reservoir , characterized in that said fill means comprise first and second fill vials receivable within said outer housing, said second fill vial contains a diluent and a lyophilized drug.