mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic drilling machine for simultaneously drilling at least two holes through a surface of a crosspiece , the machine comprising: an automatic drilling unit having at least two tool holders , each one adapted for receiving a drilling tool , wherein the automatic drilling unit has a cross-shaped channel configured for receiving at least partially the crosspiece to be drilled inside the automatic drilling unit , and wherein the tool holders are arranged, such as, when the drilling unit is mounted with the crosspiece to be drilled, the tool holders are positioned in accordance with the locations of the crosspiece where a hole is to be drilled, and wherein the automatic drilling unit is a pneumatic device and it has a pneumatic circuit, characterised in that the automatic drilling unit further comprises position detecting means configured and arranged to detect a correct position of a crosspiece when it is coupled with the automatic drilling unit, and in that the position detecting means are operatively associated with the pneumatic circuit, such as the pneumatic circuit is only closed when the crosspiece is correctly coupled with the automatic drilling unit. an automatic drilling unit having at least two tool holders , each one adapted for receiving a drilling tool , wherein the automatic drilling unit has a cross-shaped channel configured for receiving at least partially the crosspiece to be drilled inside the automatic drilling unit , and wherein the tool holders are arranged, such as, when the drilling unit is mounted with the crosspiece to be drilled, the tool holders are positioned in accordance with the locations of the crosspiece where a hole is to be drilled, and wherein the automatic drilling unit is a pneumatic device and it has a pneumatic circuit, characterised in that the automatic drilling unit further comprises position detecting means configured and arranged to detect a correct position of a crosspiece when it is coupled with the automatic drilling unit, and in that the position detecting means are operatively associated with the pneumatic circuit, such as the pneumatic circuit is only closed when the crosspiece is correctly coupled with the automatic drilling unit.
Target device configured to be attested by an appraiser by remote attestation, the target device comprising a Virtual Machine Manager, VMM, running one or more virtual machines , and being configured to: - receive from the appraiser an attestation request, - collect virtual machine attestation information (vPCR, vSML) about the one or more virtual machines , - generate a virtual machine integrity value (H) by concatenating at least part of the collected virtual machine attestation information (vPCR), - generate a digital signature (Quote(PCR, H) AIK ) for the VVM based on the virtual machine integrity value (H), and - send the generated digital signature (Quote(PCR, H) AIK ) and the virtual machine attestation information (vPCR, vSML) to the appraiser as a response to the attestation request, wherein the target device further comprises - a security module (509, TPM) configured to generate the digital signature (Quote(PCR, H) AIK ) for the VMM , wherein the digital signature (Quote(PCR, H) AIK ) is generated based on the virtual machine integrity value (H) and on a memory register value (PCR) corresponding to the security module , the memory register value (PCR) including at least one measurement of the VMM wherein the target device is further configured to: - generate a VMM measurement report (SML), the VMM measurement report comprising at least one VMM measurement, and - send the VMM measurement report (SML) to the appraiser along with the generated digital signature (Quote(PCR, H) AIK ) and the virtual machine attestation information (vPCR, vSML). - receive from the appraiser an attestation request, - collect virtual machine attestation information (vPCR, vSML) about the one or more virtual machines , - generate a virtual machine integrity value (H) by concatenating at least part of the collected virtual machine attestation information (vPCR), - generate a digital signature (Quote(PCR, H) AIK ) for the VVM based on the virtual machine integrity value (H), and - send the generated digital signature (Quote(PCR, H) AIK ) and the virtual machine attestation information (vPCR, vSML) to the appraiser as a response to the attestation request, wherein the target device further comprises - a security module (509, TPM) configured to generate the digital signature (Quote(PCR, H) AIK ) for the VMM , - generate a VMM measurement report (SML), the VMM measurement report comprising at least one VMM measurement, and - send the VMM measurement report (SML) to the appraiser along with the generated digital signature (Quote(PCR, H) AIK ) and the virtual machine attestation information (vPCR, vSML).
Method for inspecting at least one surface of a strip (B) moving in a strip running direction (v) by an inspector (I), wherein the surface of the strip (B) is irradiated with at least a first light source and a second light source and wherein the first light source emits light at a first irradiation angle range (Δα 1 ) onto a first surface region (H) and the second light source emits light at a second irradiation angle range (Δα 2 ) onto a second surface region (D) of the surface of the strip (B), and the first light source and the second light source are alternately operated in pulsed mode at a predetermined pulse frequency (f), so that the surface of the strip (B) is irradiated alternately at the pulse frequency (f) in the first surface region (H) and the second surface region (D) and the first surface region (H) irradiated by the first light source is viewed by the inspector (I) via a mirror in bright field and the second surface region (D) irradiated by the second light source can be observed by the inspector (I) via the mirror in the dark field, wherein the observation of the first surface region (H) and the second surface region (D) is carried out by the human eye of the inspector (I) and without the aid of a camera.
A band configured for holding implements and tools when the band is secured around an arm of a user, the band comprising: a body delimited by oppositely-disposed first and second longitudinal ends and by first and second edges that are between the first and second longitudinal ends and spaced apart from each other in a lateral direction of the body, the first and second edges each having arcuate portions and, upon fastening the first and second longitudinal ends together, the body acquires a circular shape having first and second axial ends that are defined respectively by the first and second edges, the first axial end being larger than the second axial end; means for releasably securing the first and second longitudinal ends together; sleeves located on an outer surface of the body and arranged side-by-side in a row so that each sleeve extends laterally across the outer surface, each of the sleeves having opposite ends that are open to permit an implement or tool to be placed therein from either of the opposite ends and protrude from both of the opposite ends; and characterized in that the band further comprises: straps secured to the body and sized to accommodate and secure implements or tools of different sizes, at least some of the straps spanning one or more of the sleeves, the straps being disposed at different angles relative to the first and second edges of the body so as not to be parallel to each other. a body delimited by oppositely-disposed first and second longitudinal ends and by first and second edges that are between the first and second longitudinal ends and spaced apart from each other in a lateral direction of the body, the first and second edges each having arcuate portions and, upon fastening the first and second longitudinal ends together, the body acquires a circular shape having first and second axial ends that are defined respectively by the first and second edges, the first axial end being larger than the second axial end; means for releasably securing the first and second longitudinal ends together; sleeves located on an outer surface of the body and arranged side-by-side in a row so that each sleeve extends laterally across the outer surface, each of the sleeves having opposite ends that are open to permit an implement or tool to be placed therein from either of the opposite ends and protrude from both of the opposite ends; and characterized in that the band further comprises: straps secured to the body and sized to accommodate and secure implements or tools of different sizes, at least some of the straps spanning one or more of the sleeves, the straps being disposed at different angles relative to the first and second edges of the body so as not to be parallel to each other.
A composition comprising rebaudioside A (RA), rebaudioside B (RB) and rebaudioside D (RD), wherein RA is present from 95% to 65% by weight and RD is present from 5% to 35% by weight, provided other steviol glycosides, except for rebaudioside B, are less than 0.5% of the total composition.
Method for the flexible operation of a power plant with a waste heat steam generator which works according to the once-through principle and has heating surfaces of various stages (V, D, U) of the waste heat steam generator arranged in the flue gas duct (K), characterized in that in order to increase power at approximately the same time as an additional firing (F), arranged in the flue gas duct (K) of the waste heat steam generator , is brought on-line, a feed water mass flow rate of the feed water (W) flowing through the heating surfaces is increased.
A method for horizontally electrochemically depositing metal on a cathode surface of a crystalline silicon solar cell , wherein the cathode surface comprises an upper cathode surface and a lower cathode surface, comprising the steps of: - providing an upper metal anode , a lower metal anode , and an electrolyte solution wherein the upper metal anode and the lower metal anode correspond to respectively the upper and the lower cathode surface in the process of electrochemically depositing metal but can be disposed at any suitable place; - enabling the electrolyte solution to contact the upper metal anode and continuously flow down to the upper cathode surface of the crystalline silicon solar cell being prepared for the metal electrochemical deposition process, thereby disposing an electrolyte solution layer on the upper cathode surface of the crystalline silicon solar cell, wherein the electrolyte solution contacts the upper metal anode, and after the electrolyte solution contacts the upper metal anode, the electrolyte solution is transported to the upper cathode surface and continuously flows down to the upper cathode surface of the crystalline silicon solar cell; and - soaking the lower metal anode in the electrolyte solution, and having the electrolyte solution in contact with the lower cathode surface of the crystalline silicon solar cell being prepared for the metal electrochemical deposition process; or spraying the electrolyte solution continuously upwards to the lower cathode surface of the crystalline silicon solar cell after the electrolyte solution contacts the lower metal anode. - providing an upper metal anode , a lower metal anode , and an electrolyte solution wherein the upper metal anode and the lower metal anode correspond to respectively the upper and the lower cathode surface in the process of electrochemically depositing metal but can be disposed at any suitable place; - enabling the electrolyte solution to contact the upper metal anode and continuously flow down to the upper cathode surface of the crystalline silicon solar cell being prepared for the metal electrochemical deposition process, thereby disposing an electrolyte solution layer on the upper cathode surface of the crystalline silicon solar cell, wherein the electrolyte solution contacts the upper metal anode, and after the electrolyte solution contacts the upper metal anode, the electrolyte solution is transported to the upper cathode surface and continuously flows down to the upper cathode surface of the crystalline silicon solar cell; and - soaking the lower metal anode in the electrolyte solution, and having the electrolyte solution in contact with the lower cathode surface of the crystalline silicon solar cell being prepared for the metal electrochemical deposition process; or spraying the electrolyte solution continuously upwards to the lower cathode surface of the crystalline silicon solar cell after the electrolyte solution contacts the lower metal anode.
A method for planning a longitudinal motion parameter of a vehicle, comprising: detecting a plurality of obstacles located within a preset range of the vehicle; obtaining a time-space domain of each of the plurality of obstacles and a time-space domain of the vehicle, wherein the time-space domain of each obstacle is used to indicate a change of a position space of each obstacle with time, and the time-space domain of the vehicle is used to indicate a change of a position space of the vehicle with time; characterized by determining a spatial-temporal occupy type between the time-space domain of each of the plurality of obstacles and the time-space domain of the vehicle based on an occupy time between the time-space domain of each of the plurality of obstacles and the time-space domain of the vehicle, wherein the occupy time is used to indicate a time period in which the position space of each of the plurality of obstacles occupies at least a part of the position space of the vehicle; selecting a target obstacle from the plurality of obstacles based on the spatial-temporal occupy type; and planning a longitudinal motion parameter of the vehicle based on a spatial-temporal occupy type corresponding to the target obstacle. detecting a plurality of obstacles located within a preset range of the vehicle; obtaining a time-space domain of each of the plurality of obstacles and a time-space domain of the vehicle, wherein the time-space domain of each obstacle is used to indicate a change of a position space of each obstacle with time, and the time-space domain of the vehicle is used to indicate a change of a position space of the vehicle with time; characterized by determining a spatial-temporal occupy type between the time-space domain of each of the plurality of obstacles and the time-space domain of the vehicle based on an occupy time between the time-space domain of each of the plurality of obstacles and the time-space domain of the vehicle, wherein the occupy time is used to indicate a time period in which the position space of each of the plurality of obstacles occupies at least a part of the position space of the vehicle; selecting a target obstacle from the plurality of obstacles based on the spatial-temporal occupy type; and planning a longitudinal motion parameter of the vehicle based on a spatial-temporal occupy type corresponding to the target obstacle.
An electronic entity including a module formed of a support film bearing, on a face called inner face, a microcircuit and a first coupling coil , and a body including a cavity in which this module is fixed, the support film having a surface called outer surface along at least approximately a surface called upper surface of this body, and containing an antenna and a second coupling coil connected to this antenna and intended for the coupling of the antenna with the microcircuit by electromagnetic coupling with the first coupling coil, characterized in that this second coupling coil is formed over a thickness of at most equal to 10 microns in a plane located, relative to the upper surface of the body, at a distance less than half the distance relative to the surface opposite this upper surface of this body.
An LED lighting device comprising: a first case ; a light source unit disposed on one side of the first case ; a light guide plate disposed in parallel with the light source unit ; and an second case coupled to the first case in an attachable and removable way and a reflective sheet disposed between the second case and the light guide plate ; wherein the first case comprises, on each of two opposing sides of the light guide plate : a body including two planes which are formed perpendicular to each other; a bezel formed extending perpendicular to one plane of the body ; wherein the bezel of the first case supports the bottom surface of the light guide plate ; and a guide formed projecting perpendicular to the other plane of the body ; wherein the second case comprises a plate shaped base disposed on the reflective sheet and the light guide plate ; characterized in that the second case further comprises an edge formed extending from two opposing sides of the plated shaped base and having a level difference, wherein the base is formed thicker than the edge ; wherein the edge of the upper case is seated on said other plane of the bodies ; and wherein the base presses the top of the reflective sheet , so that the reflective sheet and the light guide plate become closer to each other so that the reflective sheet and the light guide plate can be prevented from moving. a first case ; a light source unit disposed on one side of the first case ; a light guide plate disposed in parallel with the light source unit ; and an second case coupled to the first case in an attachable and removable way and a reflective sheet disposed between the second case and the light guide plate ; a body including two planes which are formed perpendicular to each other; a bezel formed extending perpendicular to one plane of the body ; wherein the bezel of the first case supports the bottom surface of the light guide plate ; and a guide formed projecting perpendicular to the other plane of the body ; wherein the second case comprises a plate shaped base disposed on the reflective sheet and the light guide plate ; characterized in that the second case further comprises an edge formed extending from two opposing sides of the plated shaped base and having a level difference, wherein the base is formed thicker than the edge ; wherein the edge of the upper case is seated on said other plane of the bodies ; and wherein the base presses the top of the reflective sheet , so that the reflective sheet and the light guide plate become closer to each other so that the reflective sheet and the light guide plate can be prevented from moving.
An electronic device comprising: a display module comprising an upper plate , a lower plate , and a sealing member which forms a cell sealing portion between the upper plate and the lower plate in order to seal the upper plate with the lower plate ; a support plate on which the upper plate , the lower plate and the sealing member of the display module are disposed; and a plurality of openings (130, 130a-130d) which are disposed along an outer circumference of the support plate for reducing vibration, more particularly vibration caused by a shock generated in an outer side of the electronic device , transmitted to the display module through the support plate , wherein the plurality of openings (130, 130a-130d) are disposed along a peripheral portion of the sealing member . a display module comprising an upper plate , a lower plate , and a sealing member which forms a cell sealing portion between the upper plate and the lower plate in order to seal the upper plate with the lower plate ; a support plate on which the upper plate , the lower plate and the sealing member of the display module are disposed; and a plurality of openings (130, 130a-130d) which are disposed along an outer circumference of the support plate for reducing vibration, more particularly vibration caused by a shock generated in an outer side of the electronic device , transmitted to the display module through the support plate , wherein the plurality of openings (130, 130a-130d) are disposed along a peripheral portion of the sealing member .
A radioactive metal sodium destruction installation, the installation comprising: - a reaction vessel containing an aqueous solution, the reaction vessel having an aqueous solution outlet ; - a sodium feed circuit configured for feeding liquid metallic sodium into the reaction vessel ; - a liquid effluent treatment unit , comprising a drain tank and a drain line fluidically connecting the aqueous solution outlet to the drain tank ; - a gas treatment unit and an inert gas feed unit ; characterized in that : - the gas treatment unit is configured for diluting the gases and releasing the diluted gases into the atmosphere, the drain tank having a gas outlet fluidically connected to the gas treatment unit ; - the inert gas feed unit is configured for feeding an inert gas into the drain tank . - a reaction vessel containing an aqueous solution, the reaction vessel having an aqueous solution outlet ; - a sodium feed circuit configured for feeding liquid metallic sodium into the reaction vessel ; - a liquid effluent treatment unit , comprising a drain tank and a drain line fluidically connecting the aqueous solution outlet to the drain tank ; - a gas treatment unit and an inert gas feed unit ; - the gas treatment unit is configured for diluting the gases and releasing the diluted gases into the atmosphere, the drain tank having a gas outlet fluidically connected to the gas treatment unit ; - the inert gas feed unit is configured for feeding an inert gas into the drain tank .
An implantable percutaneous fluid delivery device (2;52;82;102) for delivering fluid to selected targets within the body via one or more implanted catheter devices, the implantable percutaneous fluid delivery device (2;52;82;102) comprising; a subcutaneous base portion (6;56;106) comprising one or more ports for supplying fluid to one or more implanted catheter devices , and a percutaneous portion (4;54;104) that extends from the subcutaneous base portion (6;56;106) and comprises an extracorporeal surface, the one or more ports of the subcutaneous base portion being accessible from the extracorporeal surface of the percutaneous portion, wherein the subcutaneous base portion is at least partially insertable into a complementary recess formed in a bone and comprises a central hub (22;60;90;122) and one or more anchoring features for directly anchoring the subcutaneous base portion to the bone, the one or more anchoring features comprising a plurality of radially protruding wings (24;62;88;124) that extend from the central hub, each wing extending from the central hub by a distance greater than half the radius of the hub, characterised in that each wing comprises one or more apertures , a coating or a surface texture to promote osseointegration. a subcutaneous base portion (6;56;106) comprising one or more ports for supplying fluid to one or more implanted catheter devices , and a percutaneous portion (4;54;104) that extends from the subcutaneous base portion (6;56;106) and comprises an extracorporeal surface, the one or more ports of the subcutaneous base portion being accessible from the extracorporeal surface of the percutaneous portion, wherein the subcutaneous base portion is at least partially insertable into a complementary recess formed in a bone and comprises a central hub (22;60;90;122) and one or more anchoring features for directly anchoring the subcutaneous base portion to the bone, the one or more anchoring features comprising a plurality of radially protruding wings (24;62;88;124) that extend from the central hub, each wing extending from the central hub by a distance greater than half the radius of the hub, characterised in that each wing comprises one or more apertures , a coating or a surface texture to promote osseointegration.