mhurhangee/patent-ind-claim-en huggingface dataset:
A gallium nitride component, comprising: a substrate ; a gallium nitride GaN buffer layer formed on the substrate ; an aluminum gallium nitride AlGaN barrier layer formed on the GaN buffer layer ; and a source, a drain, and a gate formed on the AlGaN barrier layer ; wherein the gate comprises a P-doped gallium nitride P-GaN cap layer formed on the AlGaN barrier layer , and a first gate metal and a second gate metal formed on the P-GaN cap layer , wherein a Schottky contact is formed between the first gate metal and the P-GaN cap layer , and an ohmic contact is formed between the second gate metal and the P-GaN cap layer , characterised in that the first gate metal and the second gate metal are not in contact with each other. a substrate ; a gallium nitride GaN buffer layer formed on the substrate ; an aluminum gallium nitride AlGaN barrier layer formed on the GaN buffer layer ; and a source, a drain, and a gate formed on the AlGaN barrier layer ; wherein the gate comprises a P-doped gallium nitride P-GaN cap layer formed on the AlGaN barrier layer , and a first gate metal and a second gate metal formed on the P-GaN cap layer , wherein a Schottky contact is formed between the first gate metal and the P-GaN cap layer , and an ohmic contact is formed between the second gate metal and the P-GaN cap layer , characterised in that the first gate metal and the second gate metal are not in contact with each other.
An access and storage system comprising: a generally enclosed storage compartment configured to be positioned on a ground surface such that a wheeled conveyance device carrying an item to be transferred is rollable directly into said storage compartment ; a sensor system configured to track at least one of a placement, removal, presence or absence of said item or said wheeled conveyance device relative to said storage compartment ; and an access control system configured to control access to said storage compartment , wherein said storage compartment is sized and configured such that a person can entirely enter said compartment to place said wheeled conveyance device and said item into said storage compartment ; characterized in that : said storage compartment comprises a collapsible storage shelf coupled to a an upper portion of said storage compartment , wherein said collapsible shelf , when collapsed, is positioned immediately adjacent to said ceiling of said storage compartment , and when expanded defines a sub-compartment within said storage compartment , said sub-compartment being positioned at the top of the storage compartment ; and in that said storage compartment further includes a sub-compartment front door configured to provide access to said sub-compartment when said collapsible shelf is expanded and a main front door configured to control access to the remainder of said storage compartment when said collapsible shelf is expanded. a generally enclosed storage compartment configured to be positioned on a ground surface such that a wheeled conveyance device carrying an item to be transferred is rollable directly into said storage compartment ; a sensor system configured to track at least one of a placement, removal, presence or absence of said item or said wheeled conveyance device relative to said storage compartment ; and an access control system configured to control access to said storage compartment , wherein said storage compartment is sized and configured such that a person can entirely enter said compartment to place said wheeled conveyance device and said item into said storage compartment ; characterized in that : said storage compartment comprises a collapsible storage shelf coupled to a an upper portion of said storage compartment , wherein said collapsible shelf , when collapsed, is positioned immediately adjacent to said ceiling of said storage compartment , and when expanded defines a sub-compartment within said storage compartment , said sub-compartment being positioned at the top of the storage compartment ; and in that said storage compartment further includes a sub-compartment front door configured to provide access to said sub-compartment when said collapsible shelf is expanded and a main front door configured to control access to the remainder of said storage compartment when said collapsible shelf is expanded.
A kit for a helicopter , said helicopter comprising a fuselage and a rotor ; the kit comprising at least one device adapted to dampen the vibrations transmitted from said rotor to said fuselage and to be interposed between said fuselage and said rotor ; said device , in turn, comprising: - a first threaded element (21; 20) operatively connectable to said rotor and adapted to, in use, vibrate parallel to a first axis (B); - a second threaded element (20; 21) operatively connectable to said fuselage and operatively connected to said first threaded element (21; 20) so as to, in use, rotationally vibrate about said first axis (B); and - a plurality of threaded rollers , which are screwed on said first and second threaded elements (21, 20; 20, 21); said rollers being rotatable about their respective second axes (C) parallel to and separate from said first axis (B) with respect to said second threaded element (20; 21); said rollers also being rotatable about said axis (B) with respect to said first threaded element (21; 20) and to said second threaded element (20; 21); characterised in that said second threaded element (20; 21) is a screw screwed on said rollers and said first threaded element (21; 20) is a female screw screwed on said rollers ; said female screw defining a second thread that is internal with respect to said first axis (B) and screwed on said rollers ; said screw defining a third thread that is external with respect to said first axis (B) and screwed on said rollers . - a first threaded element (21; 20) operatively connectable to said rotor and adapted to, in use, vibrate parallel to a first axis (B); - a second threaded element (20; 21) operatively connectable to said fuselage and operatively connected to said first threaded element (21; 20) so as to, in use, rotationally vibrate about said first axis (B); and - a plurality of threaded rollers , which are screwed on said first and second threaded elements (21, 20; 20, 21);
Spur gear for use in a spur gear unit , comprising - an outer part , having a ring gear made of a first plastic, and having numerous injection sections , - an insertion part made of metal, and - a connection part , arranged between the insertion part and the outer part , for the form-fitting connection of the insertion part and the outer part , characterized in that - the injection sections are covered by the connection part , and - the connection part comprises, both along, as well as vertically to an axis of rotation (T) of the spur gear , undercuts . - an outer part , having a ring gear made of a first plastic, and having numerous injection sections , - an insertion part made of metal, and - a connection part , arranged between the insertion part and the outer part , for the form-fitting connection of the insertion part and the outer part , characterized in that - the injection sections are covered by the connection part , and - the connection part comprises, both along, as well as vertically to an axis of rotation (T) of the spur gear , undercuts .
A gyroscope comprising; a substrate ; a symmetric guided mass system , the guided mass system comprising at least one proof-mass , at least one guiding arm , and at least one spring ; wherein the at least one proof-mass and the at least one guiding arm are disposed in a plane parallel to the substrate; the at least one proof-mass being coupled to the at least one guiding arm; the at least one guiding arm being coupled to the substrate through the at least one spring ; an actuator for vibrating the at least one proof-mass in a first direction (X); and a transducer for sensing motion of the at least one proof-mass normal to the plane; wherein, when driven, the at least one proof-mass is adapted to translate in the first direction and the at least one guiding arm is adapted to rotate in the plane; wherein the at least one guiding arm and the at least one proof-mass are able to rotate out of the plane about a first sense axis, in response to angular velocity about a first input axis (Y) that is in the plane and orthogonal to the first direction, the first sense axis being in the plane and parallel to the first direction; wherein the at least one proof-mass comprises at least two proof masses , the at least two proof-masses being coupled to the at least one guiding arm, and the at least one guiding arm being coupled to the substrate through the at least one spring, such that the symmetric guided mass system is symmetrical about an axis in the first direction; wherein the two proof masses are adapted to move in anti-phase along the first direction; wherein the at least one guiding arm and the two proof-masses are able to rotate out of the plane about the first sense axis in response to angular velocity about the first input axis that is in the plane. an actuator for vibrating the at least one proof-mass in a first direction (X); and a transducer for sensing motion of the at least one proof-mass normal to the plane; wherein the at least one guiding arm and the at least one proof-mass are able to rotate out of the plane about a first sense axis, in response to angular velocity about a first input axis (Y) that is in the plane and orthogonal to the first direction, the first sense axis being in the plane and parallel to the first direction; wherein the at least one proof-mass comprises at least two proof masses , the at least two proof-masses being coupled to the at least one guiding arm, and the at least one guiding arm being coupled to the substrate through the at least one spring, such that the symmetric guided mass system is symmetrical about an axis in the first direction; wherein the two proof masses are adapted to move in anti-phase along the first direction; wherein the at least one guiding arm and the two proof-masses are able to rotate out of the plane about the first sense axis in response to angular velocity about the first input axis that is in the plane.
A carbon nanotube (CNT) fiber consisting of CNTs, having: a thickness of 0.01 μm to 3 mm, a coefficient of variation for thickness irregularity, determined as described in the description, of 0.2 or less, a distribution rate a, determined as described in the description, of 40% or more and a distribution rate b, determined as described in the description, of 70% or more as indicators of roundness, and a fiber density, determined as described in the description, of 0.8 g/cm 3 or more to 2.0 g/cm 3 , wherein in a spectrum obtained by resonance Raman spectroscopic measurement, when the maximum peak intensity in the range of 1550 cm -1 to 1650 cm -1 is defined as G and the maximum peak intensity in the range from 1300 cm -1 to 1400 cm -1 is defined as D, the ratio G/D, determined as described in the description, is 30 or more. a thickness of 0.01 μm to 3 mm, a coefficient of variation for thickness irregularity, determined as described in the description, of 0.2 or less, a distribution rate a, determined as described in the description, of 40% or more and a distribution rate b, determined as described in the description, of 70% or more as indicators of roundness, and a fiber density, determined as described in the description, of 0.8 g/cm 3 or more to 2.0 g/cm 3 , wherein in a spectrum obtained by resonance Raman spectroscopic measurement, when the maximum peak intensity in the range of 1550 cm -1 to 1650 cm -1 is defined as G and the maximum peak intensity in the range from 1300 cm -1 to 1400 cm -1 is defined as D, the ratio G/D, determined as described in the description, is 30 or more.
A molded motor comprising: a molded stator that is formed by providing a molding resin to a stator and provided with an opening formed in an end of the molded stator in an axial direction; a rotor provided inside the molded stator ; a pair of bearings (11; 12) that support a rotor shaft of the rotor ; an insulating bracket whose outer circumferential part is fitted in an inner circumferential part of the opening, which is provided with a concave part supporting one of the bearings (11; 12) by surrounding an outer ring of the one of the bearings (11; 12), and that is formed of an insulating resin; and a bracket that is provided on a counter-load side of the insulating bracket and is fixed at least to the molded stator . a molded stator that is formed by providing a molding resin to a stator and provided with an opening formed in an end of the molded stator in an axial direction; a rotor provided inside the molded stator ; a pair of bearings (11; 12) that support a rotor shaft of the rotor ; an insulating bracket whose outer circumferential part is fitted in an inner circumferential part of the opening, which is provided with a concave part supporting one of the bearings (11; 12) by surrounding an outer ring of the one of the bearings (11; 12), and that is formed of an insulating resin; and a bracket that is provided on a counter-load side of the insulating bracket and is fixed at least to the molded stator .
A method for registering a user equipment, UE , in a visited network, the method comprising: the UE selecting (s402) a home network slice identity, h-NSI, wherein the h-NSI is associated with an index value; the UE obtaining (s404) the index value with which the selected h-NSI is associated; after obtaining (s406) the index value, the UE transmitting a registration message towards a control node, the registration message comprising a requested NSI, r-NSI, and the obtained index value; and the UE receiving (s408) a registration response message comprising an allowed NSI, a-NSI, and an index value associated with the a-NSI. the UE selecting (s402) a home network slice identity, h-NSI, wherein the h-NSI is associated with an index value; the UE obtaining (s404) the index value with which the selected h-NSI is associated; after obtaining (s406) the index value, the UE transmitting a registration message towards a control node, the registration message comprising a requested NSI, r-NSI, and the obtained index value; and the UE receiving (s408) a registration response message comprising an allowed NSI, a-NSI, and an index value associated with the a-NSI.
A User Equipment, UE, comprising: a control unit ; and a WLAN interface unit configured to: transmit a Packet Data Network, PDN, connectivity request message to a Trusted WLAN Access Gateway, TWAG, in order to establish a new PDN connection; and receive a PDN connectivity accept message from the TWAG , wherein the PDN connectivity request message includes first information indicating a requested Network-based IP Flow Mobility, NBIFOM, mode, the PDN connectivity request message further includes a request type and a Protocol Configuration Option, PCO, the UE is configured to set the request type to information indicating an initial connectivity request, the PCO includes information indicating a request for use of NBIFOM, the PDN connectivity accept message is a response message to the PDN connectivity request message, and includes second information indicating an NBIFOM mode and information indicating that the request for use of NBIFOM is accepted, and the control unit is configured to: based on the reception of the PDN connectivity accept message, recognize that NBIFOM is applied to the PDN connection; and recognize the second information as an NBIFOM mode for the PDN connection. a control unit ; and a WLAN interface unit configured to: transmit a Packet Data Network, PDN, connectivity request message to a Trusted WLAN Access Gateway, TWAG, in order to establish a new PDN connection; and receive a PDN connectivity accept message from the TWAG , wherein transmit a Packet Data Network, PDN, connectivity request message to a Trusted WLAN Access Gateway, TWAG, in order to establish a new PDN connection; and receive a PDN connectivity accept message from the TWAG , wherein the PDN connectivity request message includes first information indicating a requested Network-based IP Flow Mobility, NBIFOM, mode, the PDN connectivity request message further includes a request type and a Protocol Configuration Option, PCO, the UE is configured to set the request type to information indicating an initial connectivity request, the PCO includes information indicating a request for use of NBIFOM, the PDN connectivity accept message is a response message to the PDN connectivity request message, and includes second information indicating an NBIFOM mode and information indicating that the request for use of NBIFOM is accepted, and the control unit is configured to: based on the reception of the PDN connectivity accept message, recognize that NBIFOM is applied to the PDN connection; and recognize the second information as an NBIFOM mode for the PDN connection. based on the reception of the PDN connectivity accept message, recognize that NBIFOM is applied to the PDN connection; and recognize the second information as an NBIFOM mode for the PDN connection.
A method for the lithography-based generative production of three-dimensional components , in which a material solidifiable by exposure to electromagnetic radiation is present in a tank, a construction platform is positioned at a distance from the tank bottom , material present between the construction platform and the tank bottom is position-selectively radiated by a radiation unit, wherein the electromagnetic radiation is introduced into the material from below, through a tank bottom of the tank permeable to the radiation at least in certain areas, and successively focused on focal points within the material , whereby a volume element of the material respectively present at a focal point is solidified, wherein the solidification is effected by multiphoton absorption, wherein the electromagnetic radiation is deflected by a deflection unit disposed upstream of the optical imaging system , characterized in that the volume of the focal point is varied at least once during the method such that the component is built up from solidified volume elements of different volumes, wherein the deflection unit is devised in order to adjust the focal point in a plane substantially parallel with the tank bottom .
A method for producing gears in gearwheels by means of skiving with a skiving wheel that features cutting teeth , with a workpiece spindle that is rotationally driven about a rotational workpiece axis and serves for receiving the gearwheel , and with a tool spindle that is rotationally driven about a rotational tool axis and carries the skiving wheel , wherein the tool spindle and the workpiece spindle are positioned at an axial cross-angle (α) relative to one another and the drives of the tool spindle and the workpiece spindle are rotationally driven in a predefined speed ratio, wherein the gearing is produced in several successive processing steps (S1 to S20), wherein the spacewidths between the teeth to be produced are incrementally cut deeper with a feed motion having a component in the axial direction of the workpiece spindle, and wherein the axial spacing between the tool spindle and the workpiece spindle and a turning angle (α1 to α19) between a fixed point such as, e.g., the center of the spacewidth lying between a first and a second tooth flank and a fixed point on the cutting tooth such as, e.g., its center is changed between the processing steps in such a way that a first cutting edge section (5") of the cutting tooth engages on a tooth flank section of a first tooth flank produced during a preceding processing step with an at least reduced material removal referred to other cutting edge sections of this cutting tooth , characterized in that the absolute value of the turning angle (α1 to α19) is incrementally reduced whereas the preceding sign of the turning angle (α1 to α2) is changed after a group of processing steps (S1 to S20) or after each processing step.
A chamber for fermenting, transporting and/or storing whole cacao fruit or cacao beans, wherein the chamber comprises a gas-tight fermentation room or consists of such a gas-tight fermentation room in which the cacao fruit or cacao beans to be fermented are arranged, and a unit for monitoring and controlling respiration gases in the interior of the fermentation chamber , so that during fermentation, transport and/or storage of the cacao fruit or cacao beans their respiration activity can be measured and controlled, wherein the unit for monitoring and controlling respiration gases is configured to vary a carbon dioxide concentration, characterised in that , the carbon dioxide concentration is varied in the range of 20 to 90 Vol%. wherein the unit for monitoring and controlling respiration gases is configured to vary a carbon dioxide concentration, characterised in that , the carbon dioxide concentration is varied in the range of 20 to 90 Vol%.
A medicine injecting tip comprising: a cylinder ; a plunger (620; 623); and a needle disposed in the plunger, where the plunger (620; 623) is configured to reciprocate downward and upward, and wherein the plunger forms a first space and a second space inside the cylinder; wherein the needle is inserted into a skin when the plunger moves downward and the needle is discharged from the skin, when the plunger moves upward, and wherein the needle is disposed in the second space , such that a hole is formed in the surface of the skin through which the needle is inserted into and discharged from the skin; characterized in that a first channel is formed in the medicine injecting tip , wherein the channel connects the first space with the second space ; and in that the medicine injection tip is configured such that a variation in the volume of the first space is equal to or greater than a variation in the volume of the second space , when the plunger (620; 623) reciprocates, resulting in a negative pressure state being formed in the second space when the plunger moves downward, and a positive pressure being formed around the hole in the second space by moving the plunger (620; 623) upward, whereby the needle is discharged from the skin and the medicine applied to the skin is injected into the hole when the needle is discharged from the hole by the positive pressure formed around the hole in the second space . a cylinder ; a plunger (620; 623); and a needle disposed in the plunger, where the plunger (620; 623) is configured to reciprocate downward and upward, and wherein the plunger forms a first space and a second space inside the cylinder; wherein the needle is inserted into a skin when the plunger moves downward and the needle is discharged from the skin, when the plunger moves upward, and wherein the needle is disposed in the second space , such that a hole is formed in the surface of the skin through which the needle is inserted into and discharged from the skin; characterized in that a first channel is formed in the medicine injecting tip , wherein the channel connects the first space with the second space ; and in that the medicine injection tip is configured such that a variation in the volume of the first space is equal to or greater than a variation in the volume of the second space , when the plunger (620; 623) reciprocates, resulting in a negative pressure state being formed in the second space when the plunger moves downward, and a positive pressure being formed around the hole in the second space by moving the plunger (620; 623) upward, whereby the needle is discharged from the skin and the medicine applied to the skin is injected into the hole when the needle is discharged from the hole by the positive pressure formed around the hole in the second space .