mhurhangee/patent-ind-claim-en huggingface dataset:
A training device to be inserted and placed inside a three-dimensional model of a biological organ manufactured for training, under a state in which the training device is mounted on a balloon of a balloon catheter , wherein the training device is a cylindrical stent formed of a shape-memory alloy or comprises a cylindrical stent formed of a shape-memory alloy, the stent is expandable under a room temperature environment, and the stent is contracted when heated to a predetermined temperature higher than room temperature, until an inner diameter of the stent becomes smaller than an outer diameter of the balloon in a contracted state, and returns to an original shape thereof, and further wherein the stent has a retaining portion configured to prevent the stent in the contracted state from falling off from the balloon in the contracted state.
Gearwheel transmission having a first and a second helically toothed gear which are in engagement with one another for transmission of torques in different directions for traction and overrun torques, wherein a driving and a driven gear can be defined, and the toothings of the first and second gear each have a root circle diameter and a pitch circle diameter and the first and second gear each have corresponding ring-shaped thrust collars for supporting oppositely oriented axial forces due to traction and overrun torques, and corresponding thrust collars each form a raceway (8, 9; 10, 11) with a region of overlap, such that a first and a second raceway for traction torques and a third and a fourth raceway for overrun torques are formed, and each region of overlap has a contact surface or a contact point , and each contact point lies on a contact circle diameter , and the contact surfaces or contact points for traction torques and the contact services or contact points for overrun torques are arranged spatially separated from one another, such that first and second contact surfaces or contact points are formed and the first and second contact surfaces or contact points for traction and overrun torques are arranged radially offset relative to one another, characterized in that a thrust collar with a first and a second raceway is formed, and in that the first contact surface or the first contact point for traction torques is provided close to the pitch circle diameter and the second contact surface or the second contact point for overrun torques is provided below the root circle diameter of a toothing . wherein a driving and a driven gear can be defined, and the toothings of the first and second gear each have a root circle diameter and a pitch circle diameter and the first and second gear each have corresponding ring-shaped thrust collars for supporting oppositely oriented axial forces due to traction and overrun torques, and corresponding thrust collars each form a raceway (8, 9; 10, 11) with a region of overlap, such that a first and a second raceway for traction torques and a third and a fourth raceway for overrun torques are formed, and each region of overlap has a contact surface or a contact point , and each contact point lies on a contact circle diameter , and the contact surfaces or contact points for traction torques and the contact services or contact points for overrun torques are arranged spatially separated from one another, such that first and second contact surfaces or contact points are formed and the first and second contact surfaces or contact points for traction and overrun torques are arranged radially offset relative to one another, characterized in that a thrust collar with a first and a second raceway is formed, and in that the first contact surface or the first contact point for traction torques is provided close to the pitch circle diameter and the second contact surface or the second contact point for overrun torques is provided below the root circle diameter of a toothing .
A method of acquiring an image by using ultrasound waves, the method comprising: acquiring a first number of first consecutive images of an object by using the ultrasound waves; determining a variation representing a difference between the acquired consecutive images over time by performing a comparison between each of the consecutive images and its temporally adjacent image comparing the determined variation to a preset value; determining a number of second consecutive images from among the first consecutive images, wherein the second consecutive images have variation that is less than or equal to the preset value; comparing the number of the second consecutive images and a predetermined second number; rised in that the method further comprises the step of performing a freeze operation to thereby obtain an elasticity image of the object automatically by using the second consecutive images, when the number of the second consecutive images is equal to the predetermined second number. acquiring a first number of first consecutive images of an object by using the ultrasound waves; determining a variation representing a difference between the acquired consecutive images over time by performing a comparison between each of the consecutive images and its temporally adjacent image comparing the determined variation to a preset value; determining a number of second consecutive images from among the first consecutive images, wherein the second consecutive images have variation that is less than or equal to the preset value; comparing the number of the second consecutive images and a predetermined second number; rised in that the method further comprises the step of performing a freeze operation to thereby obtain an elasticity image of the object automatically by using the second consecutive images, when the number of the second consecutive images is equal to the predetermined second number.
Device for an impeller for power generation by means of wind power, wherein a wind wheel for power generation by means of high-altitude wind is present and the impeller is thereby supported by a single blade pull rope , wherein said wind wheel utilizes the far more energetic high-altitude wind at a height of 200 to 500 m above ground for power generation, wherein the blade pull rope is provided, wherein the wind flowing against the impeller from below causes the impeller to rotate, thereby increasing the pulling force, wherein the impeller diameter and the angle of attack of the blade are changeable, wherein the diameter of the impeller is changeable depending on the mode of operation, wherein the impeller diameter can be increased, wherein respective individual blades are held by control ropes , wherein the individual blades are held by holding ropes leading obliquely to the common center, wherein a flight traction rope takes over the main traction force, characterized in that the angle of attack can be adjusted in a rotation-dependent manner by means of a second blade control rope , wherein, depending on the retraction status of one of the control ropes , the blade control rope can be retracted or extended into the blade by means of a reduction gear of 20:1, wherein the control rope can be guided over a deflection pulley , the rotary movement of this deflection pulley driving the reduction gear . wherein the impeller diameter and the angle of attack of the blade are changeable, wherein the diameter of the impeller is changeable depending on the mode of operation, wherein the impeller diameter can be increased, wherein respective individual blades are held by control ropes , wherein the individual blades are held by holding ropes leading obliquely to the common center, wherein a flight traction rope takes over the main traction force, characterized in that the angle of attack can be adjusted in a rotation-dependent manner by means of a second blade control rope , wherein, depending on the retraction status of one of the control ropes , the blade control rope can be retracted or extended into the blade by means of a reduction gear of 20:1, wherein the control rope can be guided over a deflection pulley , the rotary movement of this deflection pulley driving the reduction gear .
A catheter device comprising an elongate body having a proximal portion and a distal portion, the proximal portion of the elongate body having an inflow lumen and an outflow lumen , said catheter device further comprising: an atraumatic distal tip member on a distal end of the distal portion of the elongate body ; a through lumen comprising a tube which extends to a distal opening in the atraumatic distal tip member ; spaced-apart transverse openings formed at a plurality of locations along the distal portion of the elongate body , said transverse openings being configured to avoid and not obliterate the tube which comprises the through lumen ; a heat exchange tube having a first end connected to the inflow lumen and a second end connected to the outflow lumen , said heat exchange tube being positioned through respective ones of the transverse openings in alternate transverse directions, such that the tube forms a series of tubing loops that protrude from the distal portion; wherein the distal portion of the elongate body is insertable into the vasculature of a patient such that the patient's blood flows over and in heat exchange proximity with the heat exchange tubing loops while a heated or cooled heat exchange fluid is circulated through the heat exchange tube , thereby resulting in heat exchange between the heat exchange fluid and the patient's flowing blood. an atraumatic distal tip member on a distal end of the distal portion of the elongate body ; a through lumen comprising a tube which extends to a distal opening in the atraumatic distal tip member ; spaced-apart transverse openings formed at a plurality of locations along the distal portion of the elongate body , said transverse openings being configured to avoid and not obliterate the tube which comprises the through lumen ; a heat exchange tube having a first end connected to the inflow lumen and a second end connected to the outflow lumen , said heat exchange tube being positioned through respective ones of the transverse openings in alternate transverse directions, such that the tube forms a series of tubing loops that protrude from the distal portion; wherein the distal portion of the elongate body is insertable into the vasculature of a patient such that the patient's blood flows over and in heat exchange proximity with the heat exchange tubing loops while a heated or cooled heat exchange fluid is circulated through the heat exchange tube , thereby resulting in heat exchange between the heat exchange fluid and the patient's flowing blood.
A cellulose acetate particle aggregate comprising 64-89 wt% of cellulose acetate particles, 10-35 wt% of a second kind of particles and 0.5-15 wt% of a binder, wherein the second kind of particles are prepared from one or more substances selected from cellulose, methylcellulose, ethylcellulose, propylcellulose, methylethylcellulose, and chitosan.
A method of transmitting acknowledgment, 'ACK', or negative-acknowledgment, 'NACK' to a wireless device , comprising: signalling to the wireless device information defining how to control a radio of the wireless device to configure the wireless device for discontinuous reception 'DRX' having a plurality of awake periods and a plurality of sleep periods, wherein the awake periods alternate in time with the sleep periods, such that a receiver of the wireless device is always on during the awake periods, the receiver of the wireless device is off for at least some portion of the sleep periods, and the wireless device monitors Layer 1 for Control Channel Elements 'CCEs' only during the awake periods; receiving an uplink data transmission from the wireless device ; and transmitting ACK or NACK information corresponding to the uplink data transmission to the wireless device irrespective of the DRX awake periods and DRX sleep periods. signalling to the wireless device information defining how to control a radio of the wireless device to configure the wireless device for discontinuous reception 'DRX' having a plurality of awake periods and a plurality of sleep periods, wherein the awake periods alternate in time with the sleep periods, such that a receiver of the wireless device is always on during the awake periods, the receiver of the wireless device is off for at least some portion of the sleep periods, and the wireless device monitors Layer 1 for Control Channel Elements 'CCEs' only during the awake periods; receiving an uplink data transmission from the wireless device ; and transmitting ACK or NACK information corresponding to the uplink data transmission to the wireless device irrespective of the DRX awake periods and DRX sleep periods.
Aircraft seat module with an enclosure unit (14a; 14b; 14c) which at least partially delimits a flight passenger seating area (10a; 10b; 10c), and with a door unit (22a; 22b; 22c) which in at least one operating state is at least configured to close a passage region (18a; 18b) to the flight passenger seating area (10a; 10b), with a bearing device (24a; 24b; 24c) which is configured to support the door unit (22a; 22b; 22c) so as to be movable between an open position and a closed position in relation to the enclosure unit (14a; 14b), and with a locking device (28a; 28b; 28c) which is configured to lock the door unit (22a; 22b; 22c) in the open position, characterized in that the locking device (28a; 28b; 28c) has at least one electrically and/or electronically actuatable actuator device (56a; 56b; 56c), which is at least configured to be electrically and/or electronically actuated for an unlocking of the door unit (22a; 22b; 22c). with an enclosure unit (14a; 14b; 14c) which at least partially delimits a flight passenger seating area (10a; 10b; 10c), and with a door unit (22a; 22b; 22c) which in at least one operating state is at least configured to close a passage region (18a; 18b) to the flight passenger seating area (10a; 10b), with a bearing device (24a; 24b; 24c) which is configured to support the door unit (22a; 22b; 22c) so as to be movable between an open position and a closed position in relation to the enclosure unit (14a; 14b), and with a locking device (28a; 28b; 28c) which is configured to lock the door unit (22a; 22b; 22c) in the open position, characterized in that the locking device (28a; 28b; 28c) has at least one electrically and/or electronically actuatable actuator device (56a; 56b; 56c), which is at least configured to be electrically and/or electronically actuated for an unlocking of the door unit (22a; 22b; 22c).
A radio terminal comprising a controller configured to control a random access procedure, wherein the random access procedure includes first processing of transmitting a random access preamble to a base station , second processing of receiving a random access response from the base station , and third processing of performing uplink transmission to the base station based on the random access response, and the controller is configured to notify, in the third processing, the base station of an amount of uplink data in a transmission buffer of the radio terminal by transmitting to the base station a first report indicating amount of uplink data, the controller is further configured to notify, at a timing other than the random access procedure, the base station of an amount of uplink data in a transmission buffer of the radio terminal by transmitting to the base station a second report indicating amount of uplink data, wherein a precision of information indicating the data amount indicated by the first report is lower than a precision of information indicating the data amount indicated by the second report.
A combination of a sump cover and a sump basin for a generator of an aircraft, wherein the sump basin comprises a sump tube , the sump cover comprising: a sump cover shell shaped as an inverted bowl, a front portion of the sump cover shell including a first plurality of fastener features , each configured to fasten to one of a second plurality of fastener features in the sump basin ; characterised in that the sump cover further comprising a sump cover support extending outwardly from the sump cover shell , past a perimeter edge of the sump cover shell , configured to fit through a sump port and against the sump tube of the sump basin , wherein the sump cover support and the first plurality of fastener features define a multi-point mounting configuration between the sump cover and the sump basin . a sump cover shell shaped as an inverted bowl, a front portion of the sump cover shell including a first plurality of fastener features , each configured to fasten to one of a second plurality of fastener features in the sump basin ; characterised in that the sump cover further comprising a sump cover support extending outwardly from the sump cover shell , past a perimeter edge of the sump cover shell , configured to fit through a sump port and against the sump tube of the sump basin , wherein the sump cover support and the first plurality of fastener features define a multi-point mounting configuration between the sump cover and the sump basin .
A yoga towel and mat system, said system comprising: a yoga mat comprising: a mat substrate having a top surface, bottom surface and perimeter sides, and a metal or magnet permanently fixed to the mat proximate at least one of the top surface and perimeter sides, and a yoga towel comprising: a fabric towel; and a towel metallic member being ferromagnetic or magnetized, physically joined to the fabric towel, the towel metallic member being complementarily ferromagnetic or magnetized to be attached to the metal or magnet permanently fixed to the yoga mat, wherein the fabric towel is held in place on the yoga mat due to the magnetic attraction between the towel metallic member and the metal or the magnet attached to the yoga mat, wherein a perimeter of the towel is folded back on itself, forming a pocket and the towel metallic member is disposed therein a yoga mat comprising: a mat substrate having a top surface, bottom surface and perimeter sides, and a metal or magnet permanently fixed to the mat proximate at least one of the top surface and perimeter sides, and a mat substrate having a top surface, bottom surface and perimeter sides, and a metal or magnet permanently fixed to the mat proximate at least one of the top surface and perimeter sides, and a yoga towel comprising: a fabric towel; and a towel metallic member being ferromagnetic or magnetized, physically joined to the fabric towel, the towel metallic member being complementarily ferromagnetic or magnetized to be attached to the metal or magnet permanently fixed to the yoga mat, wherein the fabric towel is held in place on the yoga mat due to the magnetic attraction between the towel metallic member and the metal or the magnet attached to the yoga mat, wherein a perimeter of the towel is folded back on itself, forming a pocket and the towel metallic member is disposed therein a fabric towel; and a towel metallic member being ferromagnetic or magnetized, physically joined to the fabric towel, the towel metallic member being complementarily ferromagnetic or magnetized to be attached to the metal or magnet permanently fixed to the yoga mat, wherein the fabric towel is held in place on the yoga mat due to the magnetic attraction between the towel metallic member and the metal or the magnet attached to the yoga mat, wherein a perimeter of the towel is folded back on itself, forming a pocket and the towel metallic member is disposed therein
A method for monitoring gas pressure in a heat rejecting heat exchanger in a transcritically operated cooling circuit, said cooling circuit comprising a compressor, a heat rejecting heat exchanger, an expansion device and a heat consuming heat exchanger arranged in a refrigerant path, said method comprising the steps of: - in the heat rejecting heat exchanger, controlling pressure by means of a control unit, said control unit controlling at least one valve, - establishing the present capacity of one or more compressors in the cooling circuit compared to a rated capacity of the one or more compressors, the rated capacity being the maximum work which the compressor(s) is/are designed to deliver, wherein the method further comprises the steps of: - if the present capacity of the one or more compressors is at least at a level corresponding to at least 80% of the rated capacity, establishing a period of time elapsed from a point in time where the compressor capacity reached said level, and - if the established period of time has a duration which is longer than a preset period of time, then concluding that the cooling medium is operated in a region where an isothermal curve is relatively flat, and small variations in pressure results in large variations in enthalpy, measurements of the pressure of the cooling medium thereby leading a controller to believe that the cooling medium is at an optimal operating point, while the cooling medium is in fact at an inefficient operating point, due to a small error in the pressure measurement, the cooling medium thereby being in a gas loop operational mode. - in the heat rejecting heat exchanger, controlling pressure by means of a control unit, said control unit controlling at least one valve, - establishing the present capacity of one or more compressors in the cooling circuit compared to a rated capacity of the one or more compressors, the rated capacity being the maximum work which the compressor(s) is/are designed to deliver, - if the present capacity of the one or more compressors is at least at a level corresponding to at least 80% of the rated capacity, establishing a period of time elapsed from a point in time where the compressor capacity reached said level, and - if the established period of time has a duration which is longer than a preset period of time, then concluding that the cooling medium is operated in a region where an isothermal curve is relatively flat, and small variations in pressure results in large variations in enthalpy, measurements of the pressure of the cooling medium thereby leading a controller to believe that the cooling medium is at an optimal operating point, while the cooling medium is in fact at an inefficient operating point, due to a small error in the pressure measurement, the cooling medium thereby being in a gas loop operational mode.
A method for remote operation of an oilfield device in a housing , comprising: positioning a first sensor for sensing the oilfield device removably positioned in the housing; detecting data of the oilfield device with said first sensor; transmitting said detected data of the oilfield device to a remote location; and providing interactive operation of the oilfield device resulting from the step of transmitting; wherein the oilfield device is a rotating control device ; wherein the step of detecting data further comprises detecting the revolutions per minute of a rotating seal of the rotating control device; and wherein the method further comprises providing a fluid to the rotating control device responsive to said detected seal revolutions per minute. positioning a first sensor for sensing the oilfield device removably positioned in the housing; detecting data of the oilfield device with said first sensor; transmitting said detected data of the oilfield device to a remote location; and providing interactive operation of the oilfield device resulting from the step of transmitting; wherein the oilfield device is a rotating control device ; wherein the step of detecting data further comprises detecting the revolutions per minute of a rotating seal of the rotating control device; and wherein the method further comprises providing a fluid to the rotating control device responsive to said detected seal revolutions per minute.