mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine comprising: a low speed input shaft from a lower speed spool and a high speed input shaft from a higher speed spool , said low speed input shaft connected to drive a first plurality of accessories, and said high speed input shaft connected to drive a second plurality of accessories, said first plurality of accessories rotating about a first set of rotational axes , which are parallel to each other but spaced along an axial input direction and are perpendicular to a first plane (L) and said second plurality of accessories rotating about a second set of rotational axes , which are parallel to each other and spaced along an axial input direction and perpendicular to a second plane (H); said first and second planes (L, H) extending in opposed directions away from a drive input axis of said high speed input shaft and said low speed input shaft , and the first and second planes (L, H) define a V-shape; and said low speed input shaft driving a transmission gear , said transmission gear being an input to a variable speed transmission , and said variable speed transmission varying an input speed to a desired output speed, and said variable speed transmission in turn driving others of said first plurality of accessories; and said low speed input shaft and said high speed input shaft are concentric. a low speed input shaft from a lower speed spool and a high speed input shaft from a higher speed spool , said low speed input shaft connected to drive a first plurality of accessories, and said high speed input shaft connected to drive a second plurality of accessories, said first plurality of accessories rotating about a first set of rotational axes , which are parallel to each other but spaced along an axial input direction and are perpendicular to a first plane (L) and said second plurality of accessories rotating about a second set of rotational axes , which are parallel to each other and spaced along an axial input direction and perpendicular to a second plane (H); said first and second planes (L, H) extending in opposed directions away from a drive input axis of said high speed input shaft and said low speed input shaft , and the first and second planes (L, H) define a V-shape; and said low speed input shaft driving a transmission gear , said transmission gear being an input to a variable speed transmission , and said variable speed transmission varying an input speed to a desired output speed, and said variable speed transmission in turn driving others of said first plurality of accessories; and said low speed input shaft and said high speed input shaft are concentric.
A climatization container comprising: a compartment for storage of products , the compartment being defined by walls (3-7) and closable at a front by at least one door ; at least one shelf to support the products ; and a fan for distribution of air within the climatization container; wherein the compartment further comprises an air duct configured such that the fan draws air from a position proximal to a bottom wall of the compartment ; and wherein a bottom shelf is located proximal to but spaced from the bottom wall of the compartment to define an air space underneath the bottom shelf in fluid communication with the air duct such that the fan draws air from the air space underneath the bottom shelf characterised in that the fan is positioned upon a first side wall proximal to a top wall and angled upwards relative to a vertical direction such that air expelled by the fan is directed towards the top wall and travels across the top wall towards a second side wall . a compartment for storage of products , the compartment being defined by walls (3-7) and closable at a front by at least one door ; at least one shelf to support the products ; and a fan for distribution of air within the climatization container; wherein the compartment further comprises an air duct configured such that the fan draws air from a position proximal to a bottom wall of the compartment ; and wherein a bottom shelf is located proximal to but spaced from the bottom wall of the compartment to define an air space underneath the bottom shelf in fluid communication with the air duct such that the fan draws air from the air space underneath the bottom shelf characterised in that the fan is positioned upon a first side wall proximal to a top wall and angled upwards relative to a vertical direction such that air expelled by the fan is directed towards the top wall and travels across the top wall towards a second side wall .
A sorbent cartridge, comprising: a continuous sidewall extending between a first end wall and a second end wall, which define a chamber; at least first and second layers, wherein the at least first and second layers extend across the chamber within the continuous sidewall, wherein at least one of the first and second layers comprises a first region, a second region adjacent the first region and located closer to the continuous sidewall than the first region, first solid particulate media in the first region having a first average packing density, second solid particulate media in the second region having a second average packing density, and a packing density differential between the first solid particulate media in the first region and the second solid particulate media in the second region, wherein the first average packing density is less than the second average packing density when at least the first and second layers are wet. a continuous sidewall extending between a first end wall and a second end wall, which define a chamber; at least first and second layers, wherein the at least first and second layers extend across the chamber within the continuous sidewall, wherein at least one of the first and second layers comprises a first region, a second region adjacent the first region and located closer to the continuous sidewall than the first region, first solid particulate media in the first region having a first average packing density, second solid particulate media in the second region having a second average packing density, and a packing density differential between the first solid particulate media in the first region and the second solid particulate media in the second region, wherein the first average packing density is less than the second average packing density when at least the first and second layers are wet.
Method for acquiring an image data record with an x-ray imaging system with a recording system which can be rotated around an examination object, which recording system is embodied for an endless rotation, with the following steps: • Providing a calibration data record, which has measurement data from a plurality of rotations of the recording system in endless rotation, • Receiving at least one selectable acquisition parameter, • Determining, in particular calculating, an acquisition protocol with the selected acquisition parameter(s) from the provided calibration data record, • Loading the determined acquisition protocol, and • Recording an image data record using the determined acquisition protocol. • Providing a calibration data record, which has measurement data from a plurality of rotations of the recording system in endless rotation, • Receiving at least one selectable acquisition parameter, • Determining, in particular calculating, an acquisition protocol with the selected acquisition parameter(s) from the provided calibration data record, • Loading the determined acquisition protocol, and • Recording an image data record using the determined acquisition protocol.
Storage compartment, which is insertable into a cabinet element, which is formed from a blank of sheet metal, comprising a base part and edge regions surrounding the base part , which edge regions are bent upwards by about 90° with respect to the base part , and the upwardly bent edge regions are equipped with receiving and holding means, in each of which receiving and holding means a plate-shaped element is inserted and is held and forms a wall of the storage compartment , whereby one each of a first edge region and a second edge region form a corner region of the storage compartment with a first side surface and a second side surface , whereby the first side surface serves as a supporting surface for a plate side of the plate-shaped element inserted in the storage compartment , whereby the second side surface covers the frontal surface of the plate-shaped element at least over a portion of the height, into which second side surface a projecting element is provided in such a way that the inserted plate-shaped element comes to lie between supporting surface and projecting element , and the supporting surface and the projecting element form the receiving and holding means, characterized in that the projecting element is designed as crosspiece , which is formed by two parallel cuts made in the second edge region , which cuts form the longitudinal sides of the crosspiece , and which crosspiece remains connected by its narrow sides to the second edge region , and in that the crosspiece is bent up out of the surface of the second edge region .
A surgical device comprising: a housing ; a drive shaft ; a motor for rotating the drive shaft disposed within the housing; a control button disposed on the housing; and a motor speed controller operably associated with the control button, the motor speed controller varying an angular velocity of the motor as a function of a percent of actuation of the control button between an unactuated position and a fully actuated position, wherein the motor speed controller includes a light source , a set of louvers , and a photo sensor . a housing ; a drive shaft ; a motor for rotating the drive shaft disposed within the housing; a control button disposed on the housing; and a motor speed controller operably associated with the control button, the motor speed controller varying an angular velocity of the motor as a function of a percent of actuation of the control button between an unactuated position and a fully actuated position, wherein the motor speed controller includes a light source , a set of louvers , and a photo sensor .
A method of displaying information about an unmanned aerial vehicle , the method comprising: displaying, on a display for being used by a unmanned aerial vehicle controller, a map including a projected flight path of the unmanned aerial vehicle ; displaying, on the map , location-based information pertaining to radio frequency link status between the unmanned aerial vehicle and at least one ground radio; and updating the location-based information pertaining to radio frequency link status based on a change in the current position of the unmanned aerial vehicle , wherein displaying a map comprises: displaying fixed size portions of the display, each of said fixed size portions representing a predetermined area on the map , wherein said fixed size portions are tiles and are color coded to indicate an estimated strength of radio frequency links of the corresponding areas on the map; and displaying an indication of the unmanned aerial vehicle position during the flight. displaying, on a display for being used by a unmanned aerial vehicle controller, a map including a projected flight path of the unmanned aerial vehicle ; displaying, on the map , location-based information pertaining to radio frequency link status between the unmanned aerial vehicle and at least one ground radio; and updating the location-based information pertaining to radio frequency link status based on a change in the current position of the unmanned aerial vehicle , wherein displaying a map comprises: displaying fixed size portions of the display, each of said fixed size portions representing a predetermined area on the map , wherein said fixed size portions are tiles and are color coded to indicate an estimated strength of radio frequency links of the corresponding areas on the map; and displaying an indication of the unmanned aerial vehicle position during the flight. displaying fixed size portions of the display, each of said fixed size portions representing a predetermined area on the map , wherein said fixed size portions are tiles and are color coded to indicate an estimated strength of radio frequency links of the corresponding areas on the map; and displaying an indication of the unmanned aerial vehicle position during the flight.
Voltage measurement apparatus comprising: a potential attenuator configured to be electrically connected between first and second conductors , the first and second conductors being electrically coupled to a source , the potential attenuator comprising: a first impedance and a reference impedance arrangement in series with each other, and a processing arrangement configured to acquire at least one signal from the reference impedance arrangement, and to determine a voltage between the first and second conductors based on the at least one signal, characterised by the voltage measuring apparatus further comprising an offset voltage circuit, wherein the reference impedance arrangement comprises a second impedance connected between the first impedance , and an output of the offset voltage circuit such that a voltage across a potential divider comprising the first impedance and the second impedance can be changed in response to known voltage changes at the offset voltage circuit. a first impedance and a reference impedance arrangement in series with each other, and a processing arrangement configured to acquire at least one signal from the reference impedance arrangement, and to determine a voltage between the first and second conductors based on the at least one signal, characterised by the voltage measuring apparatus further comprising an offset voltage circuit, wherein the reference impedance arrangement comprises a second impedance connected between the first impedance , and an output of the offset voltage circuit such that a voltage across a potential divider comprising the first impedance and the second impedance can be changed in response to known voltage changes at the offset voltage circuit.
A nonaqueous electrolyte comprising: an organic solvent, a lithium salt dissolved in the organic solvent, (A) at least one compound represented by general formula : wherein R 1 represents an n-valent unsaturated hydrocarbon group having 2 to 6 carbon atoms; R 2 , R 3 , and R 4 each independently represent a saturated aliphatic hydrocarbon group having 1 to 20 carbon atoms; and n represents an integer 2 to 6, and (B) at least one of compounds B-1, B-2, B-3, B-4, B-5, B-6, B-7, B-8, B-9, B-10, B-11, B-12, B-13, B-14, B-15, B-16, and B-17: an organic solvent, a lithium salt dissolved in the organic solvent, (A) at least one compound represented by general formula : wherein R 1 represents an n-valent unsaturated hydrocarbon group having 2 to 6 carbon atoms; R 2 , R 3 , and R 4 each independently represent a saturated aliphatic hydrocarbon group having 1 to 20 carbon atoms; and n represents an integer 2 to 6, and (B) at least one of compounds B-1, B-2, B-3, B-4, B-5, B-6, B-7, B-8, B-9, B-10, B-11, B-12, B-13, B-14, B-15, B-16, and B-17: (A) at least one compound represented by general formula : wherein R 1 represents an n-valent unsaturated hydrocarbon group having 2 to 6 carbon atoms; R 2 , R 3 , and R 4 each independently represent a saturated aliphatic hydrocarbon group having 1 to 20 carbon atoms; and n represents an integer 2 to 6, and wherein R 1 represents an n-valent unsaturated hydrocarbon group having 2 to 6 carbon atoms; R 2 , R 3 , and R 4 each independently represent a saturated aliphatic hydrocarbon group having 1 to 20 carbon atoms; and n represents an integer 2 to 6, and (B) at least one of compounds B-1, B-2, B-3, B-4, B-5, B-6, B-7, B-8, B-9, B-10, B-11, B-12, B-13, B-14, B-15, B-16, and B-17:
A consumer product composition comprising: a non-porous dissolvable solid structure comprising a carrier material; a hydrophobic conditioning agent disposed within said carrier material, wherein said hydrophobic conditioning agent has a mean particle size of from 1 μm to 500 μm as measured according to the method disclosed in the description; and a particulate spacer material disposed within said carrier material, wherein said particulate spacer material has a mean particle size expressed as volume-weighted median of from 55 μm to 750 μm as measured according to the method disclosed in the description; wherein said non-porous dissolvable solid structure of said consumer product composition comprises a volume fraction of said particulate spacer material of from 0.05 to 0.50; wherein said particulate spacer material is water-insoluble or a ratio of dissolution rate of said carrier material to dissolution rate of said particulate spacer material is at least 2 wherein the dissolution rate is measured according to the method disclosed in the description and wherein the hydrophobic conditioning agent does not encompass perfumes or perfume materials. a non-porous dissolvable solid structure comprising a carrier material; a hydrophobic conditioning agent disposed within said carrier material, wherein said hydrophobic conditioning agent has a mean particle size of from 1 μm to 500 μm as measured according to the method disclosed in the description; and a particulate spacer material disposed within said carrier material, wherein said particulate spacer material has a mean particle size expressed as volume-weighted median of from 55 μm to 750 μm as measured according to the method disclosed in the description; a hydrophobic conditioning agent disposed within said carrier material, wherein said hydrophobic conditioning agent has a mean particle size of from 1 μm to 500 μm as measured according to the method disclosed in the description; and a particulate spacer material disposed within said carrier material, wherein said particulate spacer material has a mean particle size expressed as volume-weighted median of from 55 μm to 750 μm as measured according to the method disclosed in the description; wherein said non-porous dissolvable solid structure of said consumer product composition comprises a volume fraction of said particulate spacer material of from 0.05 to 0.50; wherein said particulate spacer material is water-insoluble or a ratio of dissolution rate of said carrier material to dissolution rate of said particulate spacer material is at least 2 wherein the dissolution rate is measured according to the method disclosed in the description and wherein the hydrophobic conditioning agent does not encompass perfumes or perfume materials.
Bragg grating optical fibre sensor comprising an optical fibre including a core , an optical cladding surrounding the core and a mechanical coating surrounding the optical cladding, the optical fibre sensor being characterised in that the mechanical coating comprises a metal and comprises an opening arranged to enable patterns of a Bragg grating to be inscribed by passing a laser beam through said opening, the opening extending circumferentially over a defined angular sector so that it presents, by projection into a plane parallel to a longitudinal axis of the optical fibre, a width greater than or equal to the diameter of the core and extending radially over the entire thickness thereof, and in that the optical fibre includes a Bragg grating inscribed in the core at the opening.
Apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy beam, comprising an irradiation device that is adapted to generate at least two coherent energy beams , wherein the irradiation device comprises a modulation unit that is adapted to combine the at least two energy beams to a combined energy beam and to adjust at least one combined beam property of the combined energy beam , characterized in that the apparatus comprises a sensor adapted to determine at least one sensor parameter, wherein the modulation unit is adapted to control at least one combined beam property dependent on the determined sensor parameter, wherein the modulation unit is adapted to adjust the at least one combined beam property via an adjustment of at least one parameter of the modulation unit , wherein the modulation unit is adapted to control the at least one combined beam property, in particular an intensity distribution and/or a spot geometry, dependent on detected residues.
A communication method performed by a system comprising a user plan function network element, a source access network device, and a target access network device,the method comprising: in a process in which the source access network device triggers an air interface handover of a user equipment, UE, to the target access network device, determining (S201), by the user plane function network element, to bicast downlink packets to the source access network device and the target access network device based on indication information or a forwarding rule, wherein the indication information or the forwarding rule is sent to the user plane function network element, wherein a session management function network element delivers the indication information to the user plane function network element; and sending (S202), by the user plane function network element, first information to the source access network device, wherein the first information is used to indicate that the user plane function network element bicasts the downlink packets to the source access network device and the target access network device, receiving, by the source access network device, the first information from the user plane function network element; and sending (S303), by the source access network device, second information to the target access network device, wherein the second information is used to determine packet data convergence protocol sequence numbers of downlink data in the downlink packets, wherein the second information include a Packet Data Convergence Protocol Sequence Number, PDCP SN, allocated by the source access network device to a packet before a first bicast packet. in a process in which the source access network device triggers an air interface handover of a user equipment, UE, to the target access network device, determining (S201), by the user plane function network element, to bicast downlink packets to the source access network device and the target access network device based on indication information or a forwarding rule, wherein the indication information or the forwarding rule is sent to the user plane function network element, wherein a session management function network element delivers the indication information to the user plane function network element; and sending (S202), by the user plane function network element, first information to the source access network device, wherein the first information is used to indicate that the user plane function network element bicasts the downlink packets to the source access network device and the target access network device, receiving, by the source access network device, the first information from the user plane function network element; and sending (S303), by the source access network device, second information to the target access network device, wherein the second information is used to determine packet data convergence protocol sequence numbers of downlink data in the downlink packets, wherein the second information include a Packet Data Convergence Protocol Sequence Number, PDCP SN, allocated by the source access network device to a packet before a first bicast packet.