mhurhangee/ep-ind-claims huggingface dataset:
A vacuum sorption device, comprising - a first volume area in which a sorber, which periodically sorbs or desorbs a refrigerant, and a condenser are arranged, - a second volume area which is arranged below the first volume area, in which a vaporizer is arranged which is completely enclosed by the refrigerant during the desorption phase, and - a third volume area which, for receiving refrigerant, is fluidically connected to the second volume area via a connection line provided with a pump, and which has at least one opening for delivering refrigerant to the second volume area characterized in that the third volume area has a volume capacity that is sufficient for releasing the vaporizer at least partially from refrigerant. - a first volume area in which a sorber, which periodically sorbs or desorbs a refrigerant, and a condenser are arranged, - a second volume area which is arranged below the first volume area, in which a vaporizer is arranged which is completely enclosed by the refrigerant during the desorption phase, and - a third volume area which, for receiving refrigerant, is fluidically connected to the second volume area via a connection line provided with a pump, and which has at least one opening for delivering refrigerant to the second volume area
A non-NPWT system for stimulating tissue growth at a tissue site without the application of an external force, comprising: a porous foam comprising an exterior-facing surface, a tissue contact surface in contact with the tissue site, and a plurality of struts positioned at the tissue contact surface, the plurality of struts contacting the tissue site to create tissue deformation at the tissue site; a moisture barrier covering the exterior-facing surface of the porous foam; wherein the porous foam is configured to provide a contact force at least between the plurality of struts and the tissue site to create the tissue deformation without the application of a reduced pressure, and has a porosity of 15.7 to 19.7 pores per centimetre (40 to 50 pores per inch); and wherein the moisture barrier is configured to trap moisture at the tissue site. a porous foam comprising an exterior-facing surface, a tissue contact surface in contact with the tissue site, and a plurality of struts positioned at the tissue contact surface, the plurality of struts contacting the tissue site to create tissue deformation at the tissue site; a moisture barrier covering the exterior-facing surface of the porous foam; wherein the porous foam is configured to provide a contact force at least between the plurality of struts and the tissue site to create the tissue deformation without the application of a reduced pressure, and has a porosity of 15.7 to 19.7 pores per centimetre (40 to 50 pores per inch); and wherein the moisture barrier is configured to trap moisture at the tissue site.
A fastener with a locking mechanism, comprising: a) an elongated bolt member having a threaded segment with a banking feature including generally planar surfaces (116A, 116B) extending axially along the threaded segment; b) a nut member having a threaded bore extending therethrough for cooperating with the threaded segment of the bolt member, the nut member having a peripheral edge with at least one flat side with an axial slot (148, 149) therein; c) a washer member having a central bore formed therethrough with a banking portion (124A, 124B) that complements the banking feature of the bolt member so that, when the threaded segment of the bolt member is inserted in the central bore of the washer member, the washer member moves axially along the threaded segment and is fixed in rotation relative to the bolt member, the washer member further having an axially projecting circumferential wall with radially inward facing engagement teeth; and d) a lock member having an annular body and at least one upstanding spring finger (134, 136) that is angled radially inward from the annular body, the annular body of the lock member having at least one tooth (138, 139) disposed circumferentially adjacent to the at least one spring finger (134, 136) of the lock member and extending radially outward from the annular body of lock member. a) an elongated bolt member having a threaded segment with a banking feature including generally planar surfaces (116A, 116B) extending axially along the threaded segment; b) a nut member having a threaded bore extending therethrough for cooperating with the threaded segment of the bolt member, the nut member having a peripheral edge with at least one flat side with an axial slot (148, 149) therein; c) a washer member having a central bore formed therethrough with a banking portion (124A, 124B) that complements the banking feature of the bolt member so that, when the threaded segment of the bolt member is inserted in the central bore of the washer member, the washer member moves axially along the threaded segment and is fixed in rotation relative to the bolt member, the washer member further having an axially projecting circumferential wall with radially inward facing engagement teeth; and d) a lock member having an annular body and at least one upstanding spring finger (134, 136) that is angled radially inward from the annular body, the annular body of the lock member having at least one tooth (138, 139) disposed circumferentially adjacent to the at least one spring finger (134, 136) of the lock member and extending radially outward from the annular body of lock member.
A high pressure fuel pump assembly for an internal combustion piston engine comprising a number of piston pump units driven by a drive shaft of the pump assembly, a drive shaft lubrication system and pump unit lubrication system, and at least one inlet for pressurized lubricant, which pump assembly is provided with a first collector conduit configured to receive lubricant from the pump unit lubrication system and a second collector conduit configured to receive leak fuel from the piston pump units, and a third collector conduit configured to receive fuel mist from the piston pump units, characterized in that the first collector conduit, the second collector conduit and a third collector conduit are arranged in a fluid collector block which is releasably attached to the pump units.
Electric coolant pump comprising a pump housing defining a pumping chamber being filled with a coolant during pump operation, with a radially inner pump inlet, a radially outer pump outlet and a pump volute extending from downstream of the pump inlet to the pump outlet, and a motor chamber being fluidically separated from the pumping chamber by a separation sidewall extending substantially in a radial plane, an electric motor with a static motor stator being arranged in the motor chamber, a rotatable motor rotor and a motor electronics being arranged in the motor chamber for energizing the motor stator, and a pump wheel being arranged in the pumping chamber and being co-rotatably connected with the motor rotor, wherein the motor electronics is arranged axially adjacent to a volute cooling sector of the pump volute and in thermal contact with a cooling section of the separation sidewall being defined by the volute cooling sector and characterized in that the volute cooling sector of the pump volute is provided with a radial width to axial height ratio higher than 1.5. a pump housing defining a pumping chamber being filled with a coolant during pump operation, with a radially inner pump inlet, a radially outer pump outlet and a pump volute extending from downstream of the pump inlet to the pump outlet, and a motor chamber being fluidically separated from the pumping chamber by a separation sidewall extending substantially in a radial plane, a pumping chamber being filled with a coolant during pump operation, with a radially inner pump inlet, a radially outer pump outlet and a pump volute extending from downstream of the pump inlet to the pump outlet, and a radially inner pump inlet, a radially outer pump outlet and a pump volute extending from downstream of the pump inlet to the pump outlet, and a motor chamber being fluidically separated from the pumping chamber by a separation sidewall extending substantially in a radial plane, an electric motor with a static motor stator being arranged in the motor chamber, a rotatable motor rotor and a motor electronics being arranged in the motor chamber for energizing the motor stator, and a static motor stator being arranged in the motor chamber, a rotatable motor rotor and a motor electronics being arranged in the motor chamber for energizing the motor stator, and a pump wheel being arranged in the pumping chamber and being co-rotatably connected with the motor rotor, wherein the motor electronics is arranged axially adjacent to a volute cooling sector of the pump volute and in thermal contact with a cooling section of the separation sidewall being defined by the volute cooling sector and characterized in that the volute cooling sector of the pump volute is provided with a radial width to axial height ratio higher than 1.5.
Glass ceramic sealing composition, characterized in that the composition is selected from the following components in mol%: - SiO 2 40 - 60 mol%, - B 2 O 3 3 - 12 mol%, - SrO 30 - 50 mol%, - CaO 1 - 12 mol%, - MgO 0 - 5 mol%, and - Al 2 O 3 1 - 6 mol%, and wherein the total concentration of CaO and MgO and SrO is 30 - 70 mol% and wherein the total concentration of SiO 2 and B 2 O 3 is 45 - 70 mol %, wherein the composition is alkali-metal-oxide-free and the composition comprises SrSiO 3 and/or Sr 2 SiO 4 as main crystalline phase(s) in addition to residual glassy phase after crystallization at 800 - 1000 °C.
A method for producing a 3D item by means of fused deposition modelling, the method comprising a 3D printing stage comprising layer-wise depositing an extrudate comprising 3D printable material, to provide the 3D item comprising 3D printed material, wherein the 3D item comprises layers of 3D printed material, wherein the method further comprises controlling a first temperature T 1 of the 3D printable material within a first temperature range, wherein the 3D printable material comprises: - a thermoplastic host material, and - a dopant material in the range of 1-20 vol.%, the dopant material comprising polymeric flake-like particles having a metal coating, wherein the 3D printable material has an optical property that irreversibly changes from a low-temperature optical property to a high-temperature optical property when increasing a temperature of the 3D printable material over a change temperature T c, the optical property being selected from the group consisting of reflection, transmission, luminescence, absorption, and color, wherein the change temperature T c is within the first temperature range, wherein during at least a first part of the 3D printing stage the first temperature T 1 is below the change temperature T c, and wherein during at least a second part of the 3D printing stage the first temperature T 1 is above the change temperature T c. wherein the method further comprises controlling a first temperature T 1 of the 3D printable material within a first temperature range, wherein the 3D printable material comprises: - a thermoplastic host material, and - a dopant material in the range of 1-20 vol.%, the dopant material comprising polymeric flake-like particles having a metal coating, - a thermoplastic host material, and - a dopant material in the range of 1-20 vol.%, the dopant material comprising polymeric flake-like particles having a metal coating, wherein the 3D printable material has an optical property that irreversibly changes from a low-temperature optical property to a high-temperature optical property when increasing a temperature of the 3D printable material over a change temperature T c, the optical property being selected from the group consisting of reflection, transmission, luminescence, absorption, and color, wherein the change temperature T c is within the first temperature range, wherein during at least a first part of the 3D printing stage the first temperature T 1 is below the change temperature T c, and wherein during at least a second part of the 3D printing stage the first temperature T 1 is above the change temperature T c.
A musical sound effect adding device comprising: a periodic signal generator configured to generate a periodic signal synchronized with an n-beat or 1/n-beat (n: integer) cycle of a musical sound signal of music piece data; a plurality of loop circuits each comprising a delay unit configured to delay the musical sound signal of the music piece data, which delay is synchronized with the periodic signal generated by the periodic signal generator; and a shift phase section configured to shift a phase of the musical sound signal to be circulated through each of the loop circuits to a phase different between the loop circuits, for the delay unit of each of the loop circuits, wherein the musical sound signal of the music piece data comprises signals in at least two channels, characterized in that each musical sound signal on the at least two channels is separately inputted to at least two different loop circuits of the plurality of loop circuits. a periodic signal generator configured to generate a periodic signal synchronized with an n-beat or 1/n-beat (n: integer) cycle of a musical sound signal of music piece data; a plurality of loop circuits each comprising a delay unit configured to delay the musical sound signal of the music piece data, which delay is synchronized with the periodic signal generated by the periodic signal generator; and a shift phase section configured to shift a phase of the musical sound signal to be circulated through each of the loop circuits to a phase different between the loop circuits, for the delay unit of each of the loop circuits, wherein the musical sound signal of the music piece data comprises signals in at least two channels, characterized in that each musical sound signal on the at least two channels is separately inputted to at least two different loop circuits of the plurality of loop circuits.
A device for treating the sleep apnea syndrome in a patient comprising: - a generator adapted to generate bursts of controlled pulses for kinaesthetic stimulation; - at least one effector adapted to be applied to an external skin site of the patient and comprising an electromechanical transducer; - sensor means capable of determining a sleep state of the patient; and - means for adaptive control of the generator, which is conditionally activated by the sensing means only in the presence of a particular sleep condition; and - discriminant means suitable for determining the patient's sleep stage from several predetermined stages of the group, which consists of: Slow wave sleep I, Slow wave sleep II, Slow wave sleep III, Slow wave sleep IV and REM sleep, characterised in that the effector is a kinaesthetic effector, the electromechanical transducer being a vibrating transducer adapted to receive the pulses generated by the generator and to deliver a given kinaesthetic stimulation energy, and in that the means for adaptively controlling the generator comprise: - modulator means capable of modifying the level of kinesthetic stimulation energy of the bursts produced by the generator as a function of the patient's sleep stage determined by the discriminator means. - a generator adapted to generate bursts of controlled pulses for kinaesthetic stimulation; - at least one effector adapted to be applied to an external skin site of the patient and comprising an electromechanical transducer; - sensor means capable of determining a sleep state of the patient; and - means for adaptive control of the generator, which is conditionally activated by the sensing means only in the presence of a particular sleep condition; and - discriminant means suitable for determining the patient's sleep stage from several predetermined stages of the group, which consists of: Slow wave sleep I, Slow wave sleep II, Slow wave sleep III, Slow wave sleep IV and REM sleep, - modulator means capable of modifying the level of kinesthetic stimulation energy of the bursts produced by the generator as a function of the patient's sleep stage determined by the discriminator means.
Coil-transporting carriage for the reliable handling of a coil or a sleeve on a coiler mandrel, having - a coil saddle, which is vertically displaceable by means of a first drive unit, for receiving the coil or the sleeve, - retaining arms which are pivotable about a first horizontal direction (X 2) by means of rotary drives for stabilizing the coil, when the external diameter thereof is not greater than a limit diameter d 0, or the sleeve, wherein the retaining arms are arranged in pairs in a second horizontal direction (X 2) oriented perpendicularly to the first horizontal direction (X 2) opposing one another on the coil saddle, - a second drive unit for horizontally displacing the coil-transporting carriage, - a control unit for actuating the first and second drive unit (3, 13) and the rotary drives and - a data interface for communication with a higher-level control unit, characterized in that the coil saddle has a plurality of bearing rollers which are in each case axially rotatable about the first horizontal direction (X 1). - a coil saddle, which is vertically displaceable by means of a first drive unit, for receiving the coil or the sleeve, - retaining arms which are pivotable about a first horizontal direction (X 2) by means of rotary drives for stabilizing the coil, when the external diameter thereof is not greater than a limit diameter d 0, or the sleeve, wherein the retaining arms are arranged in pairs in a second horizontal direction (X 2) oriented perpendicularly to the first horizontal direction (X 2) opposing one another on the coil saddle, - a second drive unit for horizontally displacing the coil-transporting carriage, - a control unit for actuating the first and second drive unit (3, 13) and the rotary drives and - a data interface for communication with a higher-level control unit,
A method for determining intermodulation distortion, IMD, present in an uplink, UL, channel received by a network node in a wireless communication network, the method comprising: for each of a plurality of time-period pairs comprising a first time period and a second time period, performing the following operations: for each of the first and second time periods, measuring a first parameter for an UL channel received by the network node during that particular time period; for each of the first and second time periods, measuring a second parameter for each of a plurality of second downlink, DL, channels transmitted by the network node during that particular time period; characterized in that for the UL channel, determining a measured first difference between the first parameter measured during the first time period and the first parameter measured during the second time period; based on the measured first difference and the measured second parameters for the respective time-period pairs, determining a predictive model for an IMD signal, associated with the second DL channels, that can be received by the network node in the UL channel. for each of a plurality of time-period pairs comprising a first time period and a second time period, performing the following operations: for each of the first and second time periods, measuring a first parameter for an UL channel received by the network node during that particular time period; for each of the first and second time periods, measuring a second parameter for each of a plurality of second downlink, DL, channels transmitted by the network node during that particular time period; characterized in that for the UL channel, determining a measured first difference between the first parameter measured during the first time period and the first parameter measured during the second time period; for each of the first and second time periods, measuring a first parameter for an UL channel received by the network node during that particular time period; for each of the first and second time periods, measuring a second parameter for each of a plurality of second downlink, DL, channels transmitted by the network node during that particular time period; characterized in that for the UL channel, determining a measured first difference between the first parameter measured during the first time period and the first parameter measured during the second time period; based on the measured first difference and the measured second parameters for the respective time-period pairs, determining a predictive model for an IMD signal, associated with the second DL channels, that can be received by the network node in the UL channel.
Amnion-derived adherent cells (AMDACs) for use in a method of treatment of an individual having or at risk of developing asthma, graft-versus-host disease, inflammatory bowel disease, multiple sclerosis, rheumatoid arthritis, psoriasis, lupus erythematosus, diabetes, mycosis fungoides, or scleroderma, wherein the method comprises administering to the individual a therapeutically effective amount of said amnion-derived adherent cells (AMDACs), wherein said therapeutically effective amount is an amount sufficient to cause a detectable improvement in one or more symptoms of said asthma, graft-versus-host disease, inflammatory bowel disease, multiple sclerosis, rheumatoid arthritis, psoriasis, lupus erythematosus, diabetes, mycosis fungoides, or scleroderma, and wherein said AMDACs are OCT-4 - as determinable by RT-PCR and CD200 + as determinable by flow cytometry, and are adherent to tissue culture plastic.
A pharmaceutical composition for use as an anticancer adjuvant comprising a receptor-interacting protein kinase-3 protein expression inducing agent as an active ingredient, wherein the anticancer adjuvant enhances sensitivity to a chemotherapeutic agent in a cancer cell lacking expression of RIP3 protein, wherein the RIP3 protein expression inducing agent is a demethylating agent, and wherein the chemotherapeutic agent is to be administered after the RIP3 protein expression inducing agent.
A motor assembly comprising a three-phase asynchronous machine equipped with three stator phases (L1, L2, L3), a capacitor assembly, a capacitor switch means for symmetrically connecting the capacitor assembly to all three stator phases (L1, L2, L3) to establish self-excited generator operation of the asynchronous machine, a load resistor assembly to establish resistive load for self-excited generator operation of the asynchronous machine, and a load resistor switch means which is arranged to connect the load resistor assembly to the stator phases (L1, L2), wherein the load resistor assembly is asymmetrical, characterised in that the load resistor assembly comprises one load resistor, only, which is arranged to be connected between two stator phases (L1, L2) of the asynchronous machine during self-excited generator operation of the asynchronous machine.