mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device adapted to be positioned in relation to an incision made in the abdominal wall of the patient, the medical device comprising an external portion configured to remain external to the body of the patient during a surgical procedure, and an internal sealing device configured to be placed on the inside of the incision during the surgical procedure, to seal against the abdominal wall, the medical device further comprises a connecting member configured to connect the external portion to the internal sealing device, and wherein the connecting member is adapted to retract the incision , wherein the internal sealing device comprises an internal vacuum sealing member (2505' i) adapted to be positioned inside the body of the patient, the internal vacuum sealing member being adapted to apply a pressure below atmospheric pressure between the medical device and human tissue of an inner surface of the abdominal wall.
A process for manufacturing furniture with at least one curved panel, wherein as starting material a common flat base plate is used, said plate being transformed into a curved panel with the following steps: a) cutting the base plate to a required width and/or length and optionally, addition of edge elements or tapes, b) making a suitable transverse groove in the area where the plate prepared in step a) is to be curved for an angle , wherein - The groove ends at a remaining thickness of the plate , which is about 0.5 to 3 mm, preferably 2 mm of the thickness of the plate, and - The said groove has any cut-out , c) making a suitable shaping insert , wherein its shape is arranged to be inserted into the said groove prepared in the step b), d) inserting the shaping insert made in the step c) and optionally gluing or stabilizing the shaping insert into the groove , e) bending of the plate around the insert inserted in the groove in the step d) to make the curved panel, and f) optionally additional shaping, grinding and/or processing of the made curved panel made in the step e) characterized in that the said groove is made so that a part of the plate remains intact, at least in the thickness of one first layer of veneer, which is a longitudinal veneer in order to allow optimal bending, while stability of the first outer veneer is ensured with a second layer of veneer, which is transverse to the first layer. a) cutting the base plate to a required width and/or length and optionally, addition of edge elements or tapes, b) making a suitable transverse groove in the area where the plate prepared in step a) is to be curved for an angle , wherein - The groove ends at a remaining thickness of the plate , which is about 0.5 to 3 mm, preferably 2 mm of the thickness of the plate, and - The said groove has any cut-out , a) is to be curved for an angle , wherein - The groove ends at a remaining thickness of the plate , which is about 0.5 to 3 mm, preferably 2 mm of the thickness of the plate, and - The said groove has any cut-out , - The groove ends at a remaining thickness of the plate , which is about 0.5 to 3 mm, preferably 2 mm of the thickness of the plate, and - The said groove has any cut-out , c) making a suitable shaping insert , wherein its shape is arranged to be inserted into the said groove prepared in the step b), d) inserting the shaping insert made in the step c) and optionally gluing or stabilizing the shaping insert into the groove , e) bending of the plate around the insert inserted in the groove in the step d) to make the curved panel, and f) optionally additional shaping, grinding and/or processing of the made curved panel made in the step e)
A steam supply system comprising: a reboiler that raises a temperature of absorbing liquid contacted with exhaust gas discharged from a boiler to absorb CO 2 in the exhaust gas and heated to eliminate CO 2 , the reboiler including: a heat exchanger tube to which steam for heating is supplied; a condensed water drum that recovers condensed water of the steam introduced from the heat exchanger tube as steam drain; and a decompression unit which is provided with the condensed water drum and which lowers pressure in the condensed water drum , wherein the decompression unit is a vent tube that discharges gas phase in the condensed water drum , a control valve adapted to control flow rate of the gas phase in the vent tube is provided in the vent tube, wherein the steam supply system further comprising a pressure measuring portion (10a;10b) adapted to obtain a pressure difference between an inner pressure of the condensed water drum and a steam pressure supplied to the reboiler; and a control unit adapted to control the decompression unit so as to adjust the pressure difference obtained in the pressure measuring portion to a desired value when a pressure difference measured by the pressure measuring portion exceeds a predetermined value to be close to pressure equalization, and wherein the control unit determines a degree of opening the control valve based on the pressure difference. a heat exchanger tube to which steam for heating is supplied; a condensed water drum that recovers condensed water of the steam introduced from the heat exchanger tube as steam drain; and a decompression unit which is provided with the condensed water drum and which lowers pressure in the condensed water drum , wherein the decompression unit is a vent tube that discharges gas phase in the condensed water drum , a control valve adapted to control flow rate of the gas phase in the vent tube is provided in the vent tube, wherein the steam supply system further comprising a pressure measuring portion (10a;10b) adapted to obtain a pressure difference between an inner pressure of the condensed water drum and a steam pressure supplied to the reboiler; and a control unit adapted to control the decompression unit so as to adjust the pressure difference obtained in the pressure measuring portion to a desired value when a pressure difference measured by the pressure measuring portion exceeds a predetermined value to be close to pressure equalization, and wherein the control unit determines a degree of opening the control valve based on the pressure difference.
An n-type material for thermoelectric conversion obtained by doping a p-type material for thermoelectric conversion with a dopant, the p-type material for thermoelectric conversion containing a carbon nanotube and a conductive resin, wherein the dopant contains an anion that is a complex ion, an alkali metal cation, and a cation scavenger.
A method of wireless communication performed by a user equipment, UE, comprising: receiving , from a base station and based at least in part on a triggering event, an indication of a frequency domain indexing configuration for a relative reference point, wherein the triggering event includes a handover; determining the relative reference point based on the indication of a frequency domain indexing configuration on a start of a control resource set in response to a component carrier including a synchronization sequence and physical broadcast channel, SS/PBCH, and on an absolute reference point in response to the component carrier not including the SS/PBCH ; and communicating using a physical channel or signal determined based at least in part on the relative reference point. receiving , from a base station and based at least in part on a triggering event, an indication of a frequency domain indexing configuration for a relative reference point, wherein the triggering event includes a handover; determining the relative reference point based on the indication of a frequency domain indexing configuration on a start of a control resource set in response to a component carrier including a synchronization sequence and physical broadcast channel, SS/PBCH, and on an absolute reference point in response to the component carrier not including the SS/PBCH ; and communicating using a physical channel or signal determined based at least in part on the relative reference point.
A training instrument , comprising: a main body comprising first and second grip areas spaced apart from one another by at least a curving portion; a strain gauge remote from the first and second grip areas; and a first connector ; and an opening portion shaped and arranged such that it is capable of having a socket portion removably provided thereto, the socket portion comprising a battery , a processor , a wireless communication circuit configured to wirelessly transmit a detected value of the strain gauge, and a second connector configured to physically engage with the first connector when the socket portion is provided to the opening portion for connecting the strain gauge to the processor ; wherein the strain gauge is configured to output to the socket portion data indicative of a deformation of the training instrument caused by a force applied to the first and second grip areas by a user, when the socket portion is provided to the opening portion. a main body comprising first and second grip areas spaced apart from one another by at least a curving portion; a strain gauge remote from the first and second grip areas; and a first connector ; and an opening portion shaped and arranged such that it is capable of having a socket portion removably provided thereto, the socket portion comprising a battery , a processor , a wireless communication circuit configured to wirelessly transmit a detected value of the strain gauge, and a second connector configured to physically engage with the first connector when the socket portion is provided to the opening portion for connecting the strain gauge to the processor ; wherein the strain gauge is configured to output to the socket portion data indicative of a deformation of the training instrument caused by a force applied to the first and second grip areas by a user, when the socket portion is provided to the opening portion.
A method for producing a rubber member using an extruder which comprises a cylinder and a screw , the method comprising the steps of: supplying a rubber composition to the cylinder ; extruding the rubber composition to a downstream side of the cylinder while kneading the rubber composition in an internal space of the cylinder that includes a plurality of protruding members protruding from an inner wall surface of the cylinder ; compressing the rubber composition at least once in the step of extruding the rubber composition to the downstream side; discharging a gas generated from the compressed rubber composition to outside of the cylinder ; discharging, through a discharge outlet of the cylinder , the rubber composition after the gas has been generated; and molding the rubber composition that has been discharged through the discharge outlet into a predetermined rubber member shape, characterized in that the screw includes a shaft that extends along the axis X of the cylinder , and a screw thread provided around the outer circumferential surface of the shaft , wherein the screw thread has a uniform pitch over the entire length and is discontinuous. supplying a rubber composition to the cylinder ; extruding the rubber composition to a downstream side of the cylinder while kneading the rubber composition in an internal space of the cylinder that includes a plurality of protruding members protruding from an inner wall surface of the cylinder ; compressing the rubber composition at least once in the step of extruding the rubber composition to the downstream side; discharging a gas generated from the compressed rubber composition to outside of the cylinder ; discharging, through a discharge outlet of the cylinder , the rubber composition after the gas has been generated; and molding the rubber composition that has been discharged through the discharge outlet into a predetermined rubber member shape, characterized in that the screw includes a shaft that extends along the axis X of the cylinder , and a screw thread provided around the outer circumferential surface of the shaft , wherein the screw thread has a uniform pitch over the entire length and is discontinuous.
Method for monitoring a knitting machine , wherein the method comprises: delivering a yarn to the knitting machine by a yarn feeding device ; measuring the yarn tension of the delivered yarn by a yarn tension sensor ; monitoring the measured yarn tension by a monitoring means determining a stop signal for the knitting machine by the monitoring means when a stop condition is notified; and notifying a stop condition when at least one failure event is identified by the monitoring means ; wherein the failure event is a broken needle event; characterized in regulating the yarn tension of the delivered yarn by a tension controlling unit ; wherein the yarn tension is adjusted by an actuator means which comprises a yarn contact means ; wherein the yarn tension is regulated to a reference value (Tref) of the yarn tension by adjusting the actuator means depending on the measured yarn tension; and wherein the monitoring means is associated to the tension controlling unit ; and for monitoring the failure event, measuring the yarn tension by the yarn tension sensor with a measuring resolution which enables to distinguish one pulse for each needle and resolves the failure event as a pulse of the measuring values of the monitored yarn tension. delivering a yarn to the knitting machine by a yarn feeding device ; measuring the yarn tension of the delivered yarn by a yarn tension sensor ; monitoring the measured yarn tension by a monitoring means determining a stop signal for the knitting machine by the monitoring means when a stop condition is notified; and notifying a stop condition when at least one failure event is identified by the monitoring means ; wherein the failure event is a broken needle event; characterized in regulating the yarn tension of the delivered yarn by a tension controlling unit ; wherein the yarn tension is adjusted by an actuator means which comprises a yarn contact means ; wherein the yarn tension is regulated to a reference value (Tref) of the yarn tension by adjusting the actuator means depending on the measured yarn tension; and wherein the monitoring means is associated to the tension controlling unit ; and for monitoring the failure event, measuring the yarn tension by the yarn tension sensor with a measuring resolution which enables to distinguish one pulse for each needle and resolves the failure event as a pulse of the measuring values of the monitored yarn tension.
A telescopic foot for furniture and/or furnishing items comprising: a supporting foot , and an internal control mechanism or kinematic mechanism, and a transmission bevel gear , and a hollow body of the foot which houses in its interior the supporting foot designed for telescopically sliding in a lowering or lifting position with respect to said body of the foot , by means of the internal control mechanism or kinematic mechanism, wherein said internal control mechanism or kinematic mechanism is actuated by means of the transmission bevel gear positioned between a first actuation opening of said bevel gear and a second telescopically sliding opening of said supporting foot , said first and second opening being formed in said body of the foot , wherein the first opening is formed laterally and the second opening is produced axially I to the hollow body of the foot and being positioned orthogonally to each other to each receive an element of said bevel gear , means being provided which allow the sliding of the supporting foot with respect to the hollow body of the foot , said telescopic foot further comprising an inner cylindrical body interposed between said body of the foot and said supporting foot , said transmission bevel gear comprising a bevel toothed crown integral with a free end of said inner cylindrical body and further comprising a flange provided in said inner cylindrical body, said flange engages against yielding flaps protruding inwardly into the hollow body of the foot, said yielding flaps forming engagement and retention means suitable for retaining said supporting foot to said hollow body of the foot . a hollow body of the foot which houses in its interior the supporting foot designed for telescopically sliding in a lowering or lifting position with respect to said body of the foot , by means of the internal control mechanism or kinematic mechanism, wherein said internal control mechanism or kinematic mechanism is actuated by means of the transmission bevel gear positioned between a first actuation opening of said bevel gear and a second telescopically sliding opening of said supporting foot , said first and second opening being formed in said body of the foot , wherein the first opening is formed laterally and the second opening is produced axially I to the hollow body of the foot and being positioned orthogonally to each other to each receive an element of said bevel gear , means being provided which allow the sliding of the supporting foot with respect to the hollow body of the foot , said telescopic foot further comprising an inner cylindrical body interposed between said body of the foot and said supporting foot , said transmission bevel gear comprising a bevel toothed crown integral with a free end of said inner cylindrical body and further comprising a flange provided in said inner cylindrical body, said flange engages against yielding flaps protruding inwardly into the hollow body of the foot, said yielding flaps forming engagement and retention means suitable for retaining said supporting foot to said hollow body of the foot .
Process for producing a chalcogen-containing compound semiconductor, comprising: - providing at least one substrate coated with a precursor for the chalcogen-containing compound semiconductor in a process chamber , - heat treating the at least one coated substrate in the process chamber , wherein during the heat treatment a gas atmosphere comprising at least one gaseous chalcogen compound is provided in the process chamber , - removing of the gas atmosphere present after heat treatment of the coated substrate as waste gas from the process chamber , - cooling the waste gas in a gas processor , characterized in that a plurality of gaseous chalcogen compounds which are present in the waste gas after heat treatment of the coated substrate are separated from the waste gas by respective conversion into a liquid or solid form, the plurality of gaseous chalcogen compounds being successively separated, the separations being separated in time and space from one another, and said plurality of gaseous chalcogen compounds being separated are present as a mixture in one and the same said waste gas. - providing at least one substrate coated with a precursor for the chalcogen-containing compound semiconductor in a process chamber , - heat treating the at least one coated substrate in the process chamber , wherein during the heat treatment a gas atmosphere comprising at least one gaseous chalcogen compound is provided in the process chamber , - removing of the gas atmosphere present after heat treatment of the coated substrate as waste gas from the process chamber , - cooling the waste gas in a gas processor , a plurality of gaseous chalcogen compounds which are present in the waste gas after heat treatment of the coated substrate are separated from the waste gas by respective conversion into a liquid or solid form, the plurality of gaseous chalcogen compounds being successively separated, the separations being separated in time and space from one another, and said plurality of gaseous chalcogen compounds being separated are present as a mixture in one and the same said waste gas.
A method, implemented in a Network Function, NF, for optimizing NF service authorization, the method comprising: sending , to an authorization server, an authorization request for a procedure that involves a plurality of NF services; and receiving , from the authorization server, an authorization response for the procedure, the authorization response including information authorizing access to the plurality of NF services. sending , to an authorization server, an authorization request for a procedure that involves a plurality of NF services; and receiving , from the authorization server, an authorization response for the procedure, the authorization response including information authorizing access to the plurality of NF services.
Method for adjusting an internal time of a tachograph, comprising: - receiving signals from a satellite navigation system , - ascertaining the time (t Sat ) predefined by the satellite navigation system by evaluating the signals from the satellite navigation system , - ascertaining a time variance (Δt) between the internal time (t DTCO ) of the tachograph and the time (t Sat ) predefined by the satellite navigation system , - ascertaining a component (K Δt ) of a compensation parameter (K total ) for aligning the internal time (t DTCO ) of the tachograph with the time (t Sat ) predefined by the satellite navigation system on the basis of the ascertained time variance (Δt), - aligning the internal time (t DTCO ) of the tachograph with the time (t Sat ) predefined by the satellite navigation system on the basis of the component (K Δt ) of the compensation parameter (K total ), - if the ascertained time variance is above a first threshold value (+Lim H ) for the time variance, altering the component (K Δt ) of the compensation parameter (K total ) for a period of time until the ascertained time variance is below a third threshold value (+Lim L ) for the time variance, - if the ascertained time variance is below a second threshold value (-Lim H ) for the time variance, altering the component (K Δt ) of the compensation parameter (K total ) for a period of time until the ascertained time variance is above a fourth threshold value (-Lim L ) for the time variance. - receiving signals from a satellite navigation system , - ascertaining the time (t Sat ) predefined by the satellite navigation system by evaluating the signals from the satellite navigation system , - ascertaining a time variance (Δt) between the internal time (t DTCO ) of the tachograph and the time (t Sat ) predefined by the satellite navigation system , - ascertaining a component (K Δt ) of a compensation parameter (K total ) for aligning the internal time (t DTCO ) of the tachograph with the time (t Sat ) predefined by the satellite navigation system on the basis of the ascertained time variance (Δt), - aligning the internal time (t DTCO ) of the tachograph with the time (t Sat ) predefined by the satellite navigation system on the basis of the component (K Δt ) of the compensation parameter (K total ), - if the ascertained time variance is above a first threshold value (+Lim H ) for the time variance, altering the component (K Δt ) of the compensation parameter (K total ) for a period of time until the ascertained time variance is below a third threshold value (+Lim L ) for the time variance, - if the ascertained time variance is below a second threshold value (-Lim H ) for the time variance, altering the component (K Δt ) of the compensation parameter (K total ) for a period of time until the ascertained time variance is above a fourth threshold value (-Lim L ) for the time variance.