mhurhangee/patent-ind-claim-en huggingface dataset:
Device for emitting a packet of collimated or focused relativistic electrons , comprising: - a first gas cloud , - a laser suitable for emitting a first focused laser pulse into the first gas cloud to create therein a first wave of electrical and magnetic fields of laser-plasma acceleration of electrons present in the gas cloud and thus form a packet of relativistic electrons which is propagated out of the first gas cloud , and - a device for collimating or focusing the packet of relativistic electrons obtained by laser-plasma acceleration comprising a gas cloud , the width of the gas cloud of the collimation or focusing device being between 10 μm and 2 mm, the collimation or focusing device being placed on the path of propagation of the packet of relativistic electrons , the gas cloud of the collimation or focusing device being separated from said gas cloud by a vacuum, the packet of relativistic electrons being propagated in the vacuum between the first gas cloud and the gas cloud of the collimation or focusing device, characterized in that the device for emitting a packet of collimated or focused relativistic electrons comprises two distinct lasers suitable for emitting two distinct laser pulses (18; 34), of which the first pulse is focused in said first gas cloud to create therein said first wave of electrical and magnetic fields of laser-plasma acceleration of the electrons present in said first gas cloud , and of which the other is focused in said gas cloud of the collimation or focusing device to create therein a wave of focusing electrical and magnetic fields, and in that the length L e and the electron density n e of the gas cloud of the collimation or focusing device are such that: L e L 0 × n e n 0 < 1 2 in which n 0 = 10 18 electrons/cm 3 and L 0 = 1 mm. - a first gas cloud , - a laser suitable for emitting a first focused laser pulse into the first gas cloud to create therein a first wave of electrical and magnetic fields of laser-plasma acceleration of electrons present in the gas cloud and thus form a packet of relativistic electrons which is propagated out of the first gas cloud , and - a device for collimating or focusing the packet of relativistic electrons obtained by laser-plasma acceleration comprising a gas cloud , the width of the gas cloud of the collimation or focusing device being between 10 μm and 2 mm, the collimation or focusing device being placed on the path of propagation of the packet of relativistic electrons , the gas cloud of the collimation or focusing device being separated from said gas cloud by a vacuum, the packet of relativistic electrons being propagated in the vacuum between the first gas cloud and the gas cloud of the collimation or focusing device,
A guiding and support device , particularly for a robot for minimally-invasive surgery through a single parietal incision and/or natural orifice, comprising: - a plurality of mutually associated rigid bodies , - stiffening means associated with said guiding and support device and adapted for the transition of said device from an inactive configuration, in which said rigid bodies can move with respect to each other, to an active configuration, in which said rigid bodies are mutually aligned so as to define a rigid guide , and vice versa, - means for translational motion which are adapted, in said active configuration of said guiding and support device , to translate a robot along said guide , characterized in that said means for translational motion are means for combined rotary and translational motion , adapted to translate and/or rotate the robot along said guide , said means for combined rotary and translational motion comprising a pair of flexible threaded shafts , and a gearwheel configured to engage said pair of flexible threaded shafts , wherein the rotation of said flexible threaded shafts determines the translation of said gearwheel along said guide and/or the rotation of said gearwheel with respect to its own axis, said gearwheel being adapted to be associated rigidly with a robot . - a plurality of mutually associated rigid bodies , - stiffening means associated with said guiding and support device and adapted for the transition of said device from an inactive configuration, in which said rigid bodies can move with respect to each other, to an active configuration, in which said rigid bodies are mutually aligned so as to define a rigid guide , and vice versa, - means for translational motion which are adapted, in said active configuration of said guiding and support device , to translate a robot along said guide , characterized in that said means for translational motion are means for combined rotary and translational motion , adapted to translate and/or rotate the robot along said guide , said means for combined rotary and translational motion comprising a pair of flexible threaded shafts , and a gearwheel configured to engage said pair of flexible threaded shafts , wherein the rotation of said flexible threaded shafts determines the translation of said gearwheel along said guide and/or the rotation of said gearwheel with respect to its own axis, said gearwheel being adapted to be associated rigidly with a robot .
Electric plug connector, having a housing with at least one plug-in opening for a complementary plug connector and a contact carrier , which is inserted into the housing and is designed as an insertion part, for the electrical contacts accessible through the plug-in opening(s), wherein the housing has two concentrically arranged housing parts which overlap in the longitudinal direction, wherein a base at the end opposite the at least one plug-in opening connects the housing parts to one another, and wherein an annular intermediate space between the concentric housing parts forms an annular receptacle for the plug extension of a complementary plug connector, wherein a receptacle for the contact carrier is formed in the interior of the inner housing part at the level of the overlap of the concentric housing parts and the contact carrier extends into the longitudinal section of the inner housing part , which overlaps with the outer housing part , wherein the plug connector further comprises a locking mechanism for an inserted complementary plug connector, comprising at least one locking element , wherein the contact carrier is designed for plug connections according to the XLR standard, or as a socket for an RJ45 plug.
A tire inflation station , comprising • a lifting table movable towards an inflation bell upper part for a tire to be inflated, wherein the inflation bell upper part is arranged above the lifting table , and • a carousel rotary device rotatable about a horizontal axis of rotation (A) and having a plurality of inflation rings that can be circumferentially attached thereto, each of which is movable into an inflation position between the tire and the inflation bell upper part by corresponding rotation of the carousel rotary device so as to form an inflation bell . • a lifting table movable towards an inflation bell upper part for a tire to be inflated, wherein the inflation bell upper part is arranged above the lifting table , and • a carousel rotary device rotatable about a horizontal axis of rotation (A) and having a plurality of inflation rings that can be circumferentially attached thereto, each of which is movable into an inflation position between the tire and the inflation bell upper part by corresponding rotation of the carousel rotary device so as to form an inflation bell .
A method performed by a user equipment (UE) comprising: receiving a request for a periodic or triggered location from a server in a wireless network; entering an idle state with respect to the wireless network ; detecting a periodic or triggering event ; obtaining location information ; determining a serving base station in the wireless network ; obtaining an uplink signaling channel to the serving base station, wherein the UE is not connected to any other element in the wireless network ; transmitting a location report to the serving base station using the uplink signaling channel, wherein the location report comprises the location information, an identification (ID) for the UE, an ID for the server and an authentication code, wherein the ID for the UE and the ID for the server are not ciphered ; and re-entering the idle state after transmitting the location report ; and the method characterised by receiving along with the request for the periodic or triggered location a first plurality ofIDs for the UE, and the ID for the UE is an ID from the first plurality ofIDs for the UE. receiving a request for a periodic or triggered location from a server in a wireless network; entering an idle state with respect to the wireless network ; detecting a periodic or triggering event ; obtaining location information ; determining a serving base station in the wireless network ; obtaining an uplink signaling channel to the serving base station, wherein the UE is not connected to any other element in the wireless network ; transmitting a location report to the serving base station using the uplink signaling channel, wherein the location report comprises the location information, an identification (ID) for the UE, an ID for the server and an authentication code, wherein the ID for the UE and the ID for the server are not ciphered ; and re-entering the idle state after transmitting the location report ; and the method characterised by receiving along with the request for the periodic or triggered location a first plurality ofIDs for the UE, and the ID for the UE is an ID from the first plurality ofIDs for the UE.
A method of determining leakage rate of a compressed air system having a pressure sensor and a screw compressor driven by a frequency converter, wherein the method comprises setting a first pressure limit and a second pressure limit, the second pressure limit being higher than the first pressure limit, increasing the pressure of the compressed air system with the screw compressor until the pressure of the compressed air system reaches the second pressure limit, and during the increase of the pressure estimating the rotational speed of the screw compressor with the frequency converter at multiple of time instants, measuring the system pressure of the compressed air system at multiple of time instants, characterized in that the method comprises storing the determined rotational speed estimates and the measured system pressures together with timestamps, calculating the volume of the compressed air system from the determined rotational speed estimates and measured system pressures together with the stored timestamps and temperatures and pressures in the system at start and end of increase of the pressure and known constants, and letting the pressure to decrease from the compressed air system until the pressure falls to the first pressure limit, and measuring the system pressure at multiple of time instants during the decrease of the pressure, fitting an exponential curve on the pressure measurement data the exponential curve having a pressure decay coefficient, and using the pressure decay coefficient as a measure indicating the leaking condition of the compressed air system.
A client device comprising: a communication interface ; a display ; a memory configured to store one or more instructions; and a processor configured to execute the one or more instructions stored in the memory to control the display to display at least a part of 360-degree video content , identify at least one of a plurality of companion screen devices (400; 400a, 400b, 400c) having a 360-degree control capability to perform 360-degree control on the 360-degree video content, by receiving from the plurality of companion screen devices, a signal (830; 920, 925) including information indicating that the plurality of companion screen devices have the 360-degree control capability and selecting at least one of the plurality of companion screen devices, control the communication interface to connect a communication channel with the at least one selected companion screen device, and control the display to control the displaying of the 360-degree video content according to a control command received from the connected at least one companion screen device. a communication interface ; a display ; a memory configured to store one or more instructions; and a processor configured to execute the one or more instructions stored in the memory to control the display to display at least a part of 360-degree video content , identify at least one of a plurality of companion screen devices (400; 400a, 400b, 400c) having a 360-degree control capability to perform 360-degree control on the 360-degree video content, by receiving from the plurality of companion screen devices, a signal (830; 920, 925) including information indicating that the plurality of companion screen devices have the 360-degree control capability and selecting at least one of the plurality of companion screen devices, control the communication interface to connect a communication channel with the at least one selected companion screen device, and control the display to control the displaying of the 360-degree video content according to a control command received from the connected at least one companion screen device.
A keratin hydrolysate characterized in that : said hydrolysate comprises at least 88% by weight of free amino acids relative to the total weight of the amino acids of the hydrolysate, the remainder of the amino acids of the hydrolysate being in the form of peptides having a molecular mass less than or equal to 800 Dalton, said hydrolysate comprises L-cystine in a content ranging from 4% to 6% by weight relative to the total weight of the hydrolysate, said hydrolysate comprises cysteine in a content less than or equal to 0.1% by weight relative to the total weight of the hydrolysate, said hydrolysate comprises tyrosine in a content less than or equal to 0.6% by weight relative to the total weight of the hydrolysate. said hydrolysate comprises at least 88% by weight of free amino acids relative to the total weight of the amino acids of the hydrolysate, the remainder of the amino acids of the hydrolysate being in the form of peptides having a molecular mass less than or equal to 800 Dalton, said hydrolysate comprises L-cystine in a content ranging from 4% to 6% by weight relative to the total weight of the hydrolysate, said hydrolysate comprises cysteine in a content less than or equal to 0.1% by weight relative to the total weight of the hydrolysate, said hydrolysate comprises tyrosine in a content less than or equal to 0.6% by weight relative to the total weight of the hydrolysate.
A method for controlled shallow etching of a surface of a substrate comprising the steps of: providing a reduced pressure chamber; forming a gas cluster ion beam comprising gas cluster ions within the reduced pressure chamber; accelerating the gas cluster ions to form an accelerated gas cluster ion beam along a beam path within the reduced pressure chamber; promoting fragmentation and/or dissociation of at least a portion of the accelerated gas cluster ions along the beam path; removing charged particles from the beam path to form an accelerated neutral beam along the beam path in the reduced pressure chamber; holding the substrate in the beam path; treating a portion of a surface of the substrate by irradiating it with the accelerated neutral beam to form a shallow modified layer on the irradiated portion of the surface, the shallow modified layer , overlying unmodified substrate beneath, wherein the shallow modified layer is more susceptible to chemical etching using etching agents that otherwise are not highly active or are inactive for etching the unmodified substrate beneath; applying a chemical etchant which etches the surface having the shallow modified layer , formed by the irradiation, to preferentially remove material in the shallow modified layer on the surface and wherein the etching stops at the unmodified substrate beneath. providing a reduced pressure chamber; forming a gas cluster ion beam comprising gas cluster ions within the reduced pressure chamber; accelerating the gas cluster ions to form an accelerated gas cluster ion beam along a beam path within the reduced pressure chamber; promoting fragmentation and/or dissociation of at least a portion of the accelerated gas cluster ions along the beam path; removing charged particles from the beam path to form an accelerated neutral beam along the beam path in the reduced pressure chamber; holding the substrate in the beam path; treating a portion of a surface of the substrate by irradiating it with the accelerated neutral beam to form a shallow modified layer on the irradiated portion of the surface, the shallow modified layer , overlying unmodified substrate beneath, wherein the shallow modified layer is more susceptible to chemical etching using etching agents that otherwise are not highly active or are inactive for etching the unmodified substrate beneath; applying a chemical etchant which etches the surface having the shallow modified layer , formed by the irradiation, to preferentially remove material in the shallow modified layer on the surface and wherein the etching stops at the unmodified substrate beneath.
A method of manufacturing a heat shield panel assembly , the method comprising: injecting melted metal into a negative cavity of a heat shield panel in a strong back core containing at least Y 2 0 3 , wherein the metal comprises yttrium, and wherein the heat shield panel comprising one or more orifices; allowing the metal to solidify to form the heat shield panel ; and removing the heat shield panel from the strong back core . injecting melted metal into a negative cavity of a heat shield panel in a strong back core containing at least Y 2 0 3 , wherein the metal comprises yttrium, and wherein the heat shield panel comprising one or more orifices; wherein the metal comprises yttrium, and wherein the heat shield panel comprising one or more orifices; allowing the metal to solidify to form the heat shield panel ; and removing the heat shield panel from the strong back core .
A method for presenting an image on a display device , including: modifying (S18) the image by applying a geometric transformation to the image; and presenting (S18) the image to which the geometric transformation has been applied on the display device , wherein the image presented on the display device is presented to a viewer through an optical component applying an inverse transformation corresponding to the geometric transformation that has been applied to the image so that at least one area of the image is perceived as having a higher density of pixels than in the rest of the image, wherein the optical component comprises an optical element that includes a front and a rear aspheric surface, wherein the optical element includes a first optical lens and a second optical lens, the first optical lens having a convex surface facing a first side and a concave surface facing a second side, and the second optical lens having a concave surface facing the first side and a convex surface facing the second side, wherein the concave surface of the first optical lens is facing the concave surface of the second optical lens. modifying (S18) the image by applying a geometric transformation to the image; and presenting (S18) the image to which the geometric transformation has been applied on the display device , wherein the image presented on the display device is presented to a viewer through an optical component applying an inverse transformation corresponding to the geometric transformation that has been applied to the image so that at least one area of the image is perceived as having a higher density of pixels than in the rest of the image, wherein the optical component comprises an optical element that includes a front and a rear aspheric surface, wherein the optical element includes a first optical lens and a second optical lens, the first optical lens having a convex surface facing a first side and a concave surface facing a second side, and the second optical lens having a concave surface facing the first side and a convex surface facing the second side, wherein the concave surface of the first optical lens is facing the concave surface of the second optical lens.
A method for manufacturing a transparent polycrystalline ceramic, wherein at least a plane transparent region near the surface is formed within the ceramic, which region has a lower thermal expansion coefficient than in the rest of the ceramic, and wherein compressive stresses are generated in the region near the surface after a thermal treatment and cooling, characterized in - that a plane transparent polycrystalline coating 3 with a thermal expansion coefficient α S as a region near the surface having α B > α S is applied to a transparent polycrystalline ceramic body 1 having a thermal expansion coefficient α B , - wherein a plane transparent and ionic or covalently bound boundary surface 2 is produced between the body and the coating and - wherein ZrO 2 (YSZ) doped with Y 2 O 3 is selected as material for the ceramic body and as material for the coating 3 Y 2 O 3 , or - that at least two different ceramic starting powders with different thermal expansion coefficients are arranged in layers above one another over a plane boundary surface, - wherein the starting powder with the lower thermal expansion coefficient is arranged on a surface, and - wherein ZrO 2 doped with Y 2 O 3 is selected as ceramic starting powder, which has a higher molar proportion of yttrium for the plane region near the surface than for the rest of the region. - that a plane transparent polycrystalline coating 3 with a thermal expansion coefficient α S as a region near the surface having α B > α S is applied to a transparent polycrystalline ceramic body 1 having a thermal expansion coefficient α B , - wherein a plane transparent and ionic or covalently bound boundary surface 2 is produced between the body and the coating and - wherein ZrO 2 (YSZ) doped with Y 2 O 3 is selected as material for the ceramic body and as material for the coating 3 Y 2 O 3 , or - that at least two different ceramic starting powders with different thermal expansion coefficients are arranged in layers above one another over a plane boundary surface, - wherein the starting powder with the lower thermal expansion coefficient is arranged on a surface, and - wherein ZrO 2 doped with Y 2 O 3 is selected as ceramic starting powder, which has a higher molar proportion of yttrium for the plane region near the surface than for the rest of the region.