mhurhangee/patent-ind-claim-en huggingface dataset:
A method of printing comprising the steps of i) providing a substrate, ii) printing a first layer on the substrate provided in step i) using a first printing medium by means of inkjet printing, iii) irradiating the first layer printed in step ii) with UV radiation to effect at least partial curing of said first layer, iv) printing at least one further layer on the first layer at least partially cured in step iii) using a second printing medium by means of inkjet printing, wherein the second printing medium does not essentially comprise a photoinitiator, and v) irradiating the at least one further layer printed in step iv) with UV radiation to effect curing of said at least one further layer, characterized in that the first printing medium comprises at least one compound which is a stable radical or forms a stable radical, wherein the stable radical is present in the form of the free radical at least for the duration of the printing process, wherein the at least one compound which is a stable radical or forms a stable radical is a photoinitiator, and wherein the at least one compound which is a stable radical or forms a stable radical is selected from radical organic N-oxides, carbon radicals and radical organic nitrogen compounds. i) providing a substrate, ii) printing a first layer on the substrate provided in step i) using a first printing medium by means of inkjet printing, iii) irradiating the first layer printed in step ii) with UV radiation to effect at least partial curing of said first layer, iv) printing at least one further layer on the first layer at least partially cured in step iii) using a second printing medium by means of inkjet printing, wherein the second printing medium does not essentially comprise a photoinitiator, and v) irradiating the at least one further layer printed in step iv) with UV radiation to effect curing of said at least one further layer, characterized in that the first printing medium comprises at least one compound which is a stable radical or forms a stable radical, wherein the stable radical is present in the form of the free radical at least for the duration of the printing process, wherein the at least one compound which is a stable radical or forms a stable radical is a photoinitiator, and wherein the at least one compound which is a stable radical or forms a stable radical is selected from radical organic N-oxides, carbon radicals and radical organic nitrogen compounds. the first printing medium comprises at least one compound which is a stable radical or forms a stable radical, wherein the stable radical is present in the form of the free radical at least for the duration of the printing process, wherein the at least one compound which is a stable radical or forms a stable radical is a photoinitiator, and wherein the at least one compound which is a stable radical or forms a stable radical is selected from radical organic N-oxides, carbon radicals and radical organic nitrogen compounds.
An aerosol of a solution comprising levofloxacin at a concentration of 90 mg/ml to 110 mg/ml, magnesium chloride at a concentration of 175 mM to 225 mM, a pH between 5 and 7; an osmolality of 300 mOsmol/kg to 500 mOsmol/kg, and lacking lactose for use in the treatment of a pulmonary inflammation by a reduction of the pulmonary concentration of one or more pro-inflammatory cytokines selected from IL-Iβ, IL-6 and IL-8.
A method, comprising: sending from a first device to a data center, data encrypted with a data encryption key for storing the encrypted data at the data center; encrypting the data encryption key according to an attribute-based encryption scheme by using identity as an attribute in a deduplication policy for the data; receiving a deduplication notification from the data center, indicating that a duplication of the same data from a second device is requested to be stored or has been stored at the data center; and issuing by the first device to the second device in response to the receipt of the deduplication notification, a personalized secret attribute key which is derived from a public key of the second device according to the attribute-based encryption scheme, wherein the personalized secret attribute key is to be used for decrypting the encrypted data encryption key at the second device, in combination with the policy. sending from a first device to a data center, data encrypted with a data encryption key for storing the encrypted data at the data center; encrypting the data encryption key according to an attribute-based encryption scheme by using identity as an attribute in a deduplication policy for the data; receiving a deduplication notification from the data center, indicating that a duplication of the same data from a second device is requested to be stored or has been stored at the data center; and issuing by the first device to the second device in response to the receipt of the deduplication notification, a personalized secret attribute key which is derived from a public key of the second device according to the attribute-based encryption scheme, wherein the personalized secret attribute key is to be used for decrypting the encrypted data encryption key at the second device, in combination with the policy.
An intravascular system , comprising: an intravascular device comprising a proximal connection portion having at least one electrical contact , wherein the proximal connection portion includes a first section having a first diameter and a second section having a second diameter less than the first diameter; and a connector configured to interface with the proximal connection portion of the intravascular device, the connector including a first connection piece and a second connection piece , the second connection piece having at least one electrical contact secured thereto; wherein the second connection piece is movable relative to the first connection piece between an open position and a closed position, wherein in the open position the second connection piece is configured to receive the proximal connection portion of the intravascular device in a direction transverse to a longitudinal axis of the intravascular device such that an alignment feature of the first connection piece engages the second section of the proximal connection portion of the intravascular device; characterised in that the first connection piece of the connector includes a recess sized and shaped to receive a section of the proximal connection portion that includes the at least one electrical contact; and the at least one electrical contact of the connector is secured to the second connection piece such that the at least one electrical contact of the connector is spaced from the recess of the first connection piece in the open position and extends across the recess of the first connection piece in the closed position. an intravascular device comprising a proximal connection portion having at least one electrical contact , wherein the proximal connection portion includes a first section having a first diameter and a second section having a second diameter less than the first diameter; and a connector configured to interface with the proximal connection portion of the intravascular device, the connector including a first connection piece and a second connection piece , the second connection piece having at least one electrical contact secured thereto; wherein the second connection piece is movable relative to the first connection piece between an open position and a closed position, wherein in the open position the second connection piece is configured to receive the proximal connection portion of the intravascular device in a direction transverse to a longitudinal axis of the intravascular device such that an alignment feature of the first connection piece engages the second section of the proximal connection portion of the intravascular device; characterised in that the first connection piece of the connector includes a recess sized and shaped to receive a section of the proximal connection portion that includes the at least one electrical contact; and the at least one electrical contact of the connector is secured to the second connection piece such that the at least one electrical contact of the connector is spaced from the recess of the first connection piece in the open position and extends across the recess of the first connection piece in the closed position.
A head-mounted device, comprising: a display configured to present images to a user's eyes in eye boxes ; a head-mountable support structure; a layer supported by the head-mountable support structure that is configured to separate an exterior region from an interior region and that is partially transparent to visible light passing from the exterior region to the eye boxes in the interior region ; and optical sensors configured to operate through the layer at a visible light wavelength and at an infrared light wavelength, wherein the layer includes a visible-light reflecting layer and a visible-light absorbing layer, the visible-light reflecting layer being arranged between the exterior region and the visible-light absorbing layer, wherein the visible-light reflecting layer reflects more visible light at the visible light wavelength than the visible-light absorbing layer, wherein the visible-light absorbing layer absorbs more visible light than the visible-light reflecting layer at the visible light wavelength, and wherein the layer is more transparent at the infrared light wavelength than at the visible light wavelength. a display configured to present images to a user's eyes in eye boxes ; a head-mountable support structure; a layer supported by the head-mountable support structure that is configured to separate an exterior region from an interior region and that is partially transparent to visible light passing from the exterior region to the eye boxes in the interior region ; and optical sensors configured to operate through the layer at a visible light wavelength and at an infrared light wavelength, wherein the layer includes a visible-light reflecting layer and a visible-light absorbing layer, the visible-light reflecting layer being arranged between the exterior region and the visible-light absorbing layer, wherein the visible-light reflecting layer reflects more visible light at the visible light wavelength than the visible-light absorbing layer, wherein the visible-light absorbing layer absorbs more visible light than the visible-light reflecting layer at the visible light wavelength, and wherein the layer is more transparent at the infrared light wavelength than at the visible light wavelength.
An implantable medical device, IMD, configured to wirelessly receive power from an electromagnetic field, comprising: a case housing control circuitry and power reception circuitry for the IMD, a non-conductive header affixed to the case, the header comprising a front side, a back side, and a top side, a feedthrough between the header and the case, a first loop antenna contained within the header proximate to and parallel with the front side of the header, a second loop antenna contained within the header proximate to and parallel with the back side of the header, and a third loop antenna contained within the header proximate to and parallel with the top of the header, characterised in that the first, second, and third loop antennas are connected with each other to form a three-dimensional cage. a case housing control circuitry and power reception circuitry for the IMD, a non-conductive header affixed to the case, the header comprising a front side, a back side, and a top side, a feedthrough between the header and the case, a first loop antenna contained within the header proximate to and parallel with the front side of the header, a second loop antenna contained within the header proximate to and parallel with the back side of the header, and a third loop antenna contained within the header proximate to and parallel with the top of the header, characterised in that the first, second, and third loop antennas are connected with each other to form a three-dimensional cage.
A telescopic device comprising: a housing having an inner side wall surface defining a bore (B) with an open end; a rod having an end slidably mounted within the bore to linearly move relative to the housing along a longitudinal axis (L) between an extended position, where the telescopic device is relatively long, and a retracted position, where the telescopic device is relatively short; and a first bearing and a second bearing each defining a bearing surface arranged to provide sliding engagement between the rod and housing, the first bearing being mounted relatively close to the open end of the bore and the second bearing being mounted relatively far from the open end of the bore relative to the first bearing, characterised in that the second bearing is annular in shape with a central axis and has a radially outer bearing mounting surface of arcuate cross-section and a radially inner bearing surface for sliding engagement with an outer surface of the rod and wherein the inner sidewall surface is provided with an annular groove defining a groove mounting surface of arcuate cross-section to house and retain the second bearing. a housing having an inner side wall surface defining a bore (B) with an open end; a rod having an end slidably mounted within the bore to linearly move relative to the housing along a longitudinal axis (L) between an extended position, where the telescopic device is relatively long, and a retracted position, where the telescopic device is relatively short; and a first bearing and a second bearing each defining a bearing surface arranged to provide sliding engagement between the rod and housing, the first bearing being mounted relatively close to the open end of the bore and the second bearing being mounted relatively far from the open end of the bore relative to the first bearing, characterised in that the second bearing is annular in shape with a central axis and has a radially outer bearing mounting surface of arcuate cross-section and a radially inner bearing surface for sliding engagement with an outer surface of the rod and wherein the inner sidewall surface is provided with an annular groove defining a groove mounting surface of arcuate cross-section to house and retain the second bearing.
A method comprising: supplying pulsed microwave radiation through a waveguide having a length, the microwave radiation propagating in a direction along the waveguide ; providing a supply gas into the waveguide at a first location along the length of the waveguide , a majority of the supply gas flowing in the direction of the microwave radiation propagation; generating a plasma in the supply gas in at least a portion of the length of the waveguide ; adding a process gas into the waveguide at a second location downstream from the first location, a majority of the process gas flowing in the direction of the microwave propagation at a flow rate of greater than 5 slm, standard liter per minute; and controlling an average energy of the plasma to convert the process gas into separated components by controlling at least one of the group consisting of: a pulsing frequency of the pulsed microwave radiation, wherein the pulsing frequency is greater than 500 Hz; and a duty cycle of the pulsed microwave radiation, wherein the duty cycle is less than 90%; wherein a pressure within the waveguide is at least 0.1 atmosphere; and wherein the process gas is methane, and the separated components comprise hydrogen and a nanoparticulate carbon. supplying pulsed microwave radiation through a waveguide having a length, the microwave radiation propagating in a direction along the waveguide ; providing a supply gas into the waveguide at a first location along the length of the waveguide , a majority of the supply gas flowing in the direction of the microwave radiation propagation; generating a plasma in the supply gas in at least a portion of the length of the waveguide ; adding a process gas into the waveguide at a second location downstream from the first location, a majority of the process gas flowing in the direction of the microwave propagation at a flow rate of greater than 5 slm, standard liter per minute; and controlling an average energy of the plasma to convert the process gas into separated components by controlling at least one of the group consisting of: a pulsing frequency of the pulsed microwave radiation, wherein the pulsing frequency is greater than 500 Hz; and a duty cycle of the pulsed microwave radiation, wherein the duty cycle is less than 90%; a pulsing frequency of the pulsed microwave radiation, wherein the pulsing frequency is greater than 500 Hz; and a duty cycle of the pulsed microwave radiation, wherein the duty cycle is less than 90%; wherein a pressure within the waveguide is at least 0.1 atmosphere; and wherein the process gas is methane, and the separated components comprise hydrogen and a nanoparticulate carbon.
A photoelectric conversion element comprising: a plurality of photodetectors (PD) that perform photoelectric conversion per pixel to output an analog image signal, and that are arranged on a straight line; and wirings that are formed in a wiring layer (M1,M2), and that are enabled to be used as at least one of a signal line used in a peripheral circuit of the photodetector (PD), a power source, and a ground, wherein each of the photodetectors (PD) includes a light receiving surface, each of the photodetectors (PD) has a first shaded region and a second shaded region of the light receiving surface, wherein in the first and second shaded regions light is shaded by the wirings that are positioned on the straight line and sandwich an opening, respectively, and the wirings are arranged above each of the photodetectors (PD) such that, even when light is entered in either one of the first shaded region and the second shaded region because of that light passed through the opening is incident on the light receiving surface in an inclined manner, an amount of light equals to an amount of light when light passed through the opening is incident perpendicularly on the light receiving surface, characterized in that in use, light that is incident perpendicularly on the photoelectric conversion element passes through the opening configured to be sandwiched by the wirings positioned on the straight line, and is incident perpendicularly on the light receiving surface in the central portion of the photoelectric conversion element. a plurality of photodetectors (PD) that perform photoelectric conversion per pixel to output an analog image signal, and that are arranged on a straight line; and wirings that are formed in a wiring layer (M1,M2), and that are enabled to be used as at least one of a signal line used in a peripheral circuit of the photodetector (PD), a power source, and a ground, wherein each of the photodetectors (PD) includes a light receiving surface, each of the photodetectors (PD) has a first shaded region and a second shaded region of the light receiving surface, wherein in the first and second shaded regions light is shaded by the wirings that are positioned on the straight line and sandwich an opening, respectively, and the wirings are arranged above each of the photodetectors (PD) such that, even when light is entered in either one of the first shaded region and the second shaded region because of that light passed through the opening is incident on the light receiving surface in an inclined manner, an amount of light equals to an amount of light when light passed through the opening is incident perpendicularly on the light receiving surface, characterized in that in use, light that is incident perpendicularly on the photoelectric conversion element passes through the opening configured to be sandwiched by the wirings positioned on the straight line, and is incident perpendicularly on the light receiving surface in the central portion of the photoelectric conversion element.
An azeotrope-like composition consisting essentially of (i) Z -1-chloro-2,3,3,3-tetrafluoroprop-1-ene ( Z -HCFO-1224yd) and (ii)(a) methyl formate or (ii)(b) E- 1, 1, 1,4,4,5,5,5-octafluoro-2-pentene ( E -HFO-1438mzz).
Tooth front veneer configured as a solid body for placing onto a machined tooth so as to screen a front face of the tooth, composed of a material composition, wherein the material composition contains at least one organic binding agent , preferably comprising methacrylate, and preferably inorganic solids particles as a filler material, wherein the tooth front veneer on one of the end regions thereof, in the longitudinal section through the tooth front veneer, is configured so as to be hook-shaped or step-shaped, respectively, having a cutting edge in said end region , wherein the tooth front veneer outside the end region having the cutting edge has a maximum thickness of 0.6 mm and/or at the end of said front tooth veneer that is opposite the cutting edge peters out in a flat manner.
Method for operating a system comprising drives (2; 3) which are mechanically coupled to one another, in particular without slip, and a higher-level computer which is connected to the drives (2; 3) by means of data bus connection, wherein, in each drive, a respective parameter actual value, that is to say an actual value of a physical parameter of the respective drive, is determined and is transmitted to the higher-level computer, in particular by means of data bus connection, wherein the higher-level computer determines for each drive a parameter setpoint value assigned to said respective drive, that is to say a setpoint value of a physical parameter of the respective drive, wherein the higher-level computer has controllers, one of the controllers being assigned, in particular uniquely assigned, to each drive, wherein the controller assigned to the respective drive adjusts the parameter actual value of the respective drive to the parameter setpoint value of the respective drive by determining as the control value a speed setpoint value assigned to the respective drive and transmitting this to the respective drive, in particular by means of data bus connection, wherein the respective drive has a respective controller, to which the respective speed actual value of an electric motor of the drive, determined in the drive, is fed and which adjusts this respective speed actual value to the respective speed setpoint value, transmitted by the higher-level computer, by adjusting the motor voltage or the motor current of the electric motor of the respective drive, characterized by a changeover step during operation, as a result of which, instead of the physical parameter of the drive, a different physical parameter of the drive is used for control purposes, the changeover taking place selectively, that is to say the changeover being such that, instead of the actual value of the physical parameter of the respective drive, the actual value of a different physical parameter of the respective drive is used, and such that, instead of the setpoint value of the physical parameter of the respective drive, the setpoint value of the different physical parameter of the respective drive is used.