mhurhangee/patent-ind-claim-en huggingface dataset:
A packaged orthodontic appliance, comprising: an orthodontic appliance comprising: a base having a bonding surface ; a body extending from the base, wherein the body includes a mesial-distally extending arch wire slot having a bottom wall ; a door coupled to the body, wherein the door is movable between an open position and a closed position; and a first tie-wing including a first undercut and a second tie-wing including a second undercut; and a packaging base including a first, a second, and a third tie-wing support arm , wherein the first tie-wing support arm supports the first tie-wing, and the second and the third tie-wing support arms support the second tie-wing. an orthodontic appliance comprising: a base having a bonding surface ; a body extending from the base, wherein the body includes a mesial-distally extending arch wire slot having a bottom wall ; a door coupled to the body, wherein the door is movable between an open position and a closed position; and a first tie-wing including a first undercut and a second tie-wing including a second undercut; and a base having a bonding surface ; a body extending from the base, wherein the body includes a mesial-distally extending arch wire slot having a bottom wall ; a door coupled to the body, wherein the door is movable between an open position and a closed position; and a first tie-wing including a first undercut and a second tie-wing including a second undercut; and a packaging base including a first, a second, and a third tie-wing support arm , wherein the first tie-wing support arm supports the first tie-wing, and the second and the third tie-wing support arms support the second tie-wing.
A polycarbonate resin composition comprising, relative to 100 parts by mass of a polycarbonate resin (A), 10 to 100 parts by mass of an acrylonitrile-styrenic copolymer (B), 10 to 100 parts by mass of glass flakes (C) having an average thickness of 0.45 to 1 μm measured as indicated in the specification, and 5 to 50 parts by mass of glass fibers (D) having an elliptical cross section with an ellipticity of more than 1.5 and not more than 8, wherein the mass ratio (D)/(C) of the content of the glass fibers (D) having an elliptical cross section to the content of the glass flakes (C) is 0.1 to 1.
A glazing , comprising: a first glass substrate having a first surface (S1) and a second surface (S2), wherein the first surface faces a vehicle exterior; a second glass substrate having a third surface (S3) and a fourth surface (S4), wherein the fourth surface faces a vehicle interior; a polymer interlayer laminated between the first and second substrates; wherein the interlayer includes ultraviolet light absorbing materials and a first coating including a first luminescent material and being applied on the fourth surface (S4) of the second glass substrate ; wherein the first coating includes a base material in which the first luminescent materials are dispersed, and the base material comprises silicon dioxide; wherein the first luminescent material is excited with light of a wavelength of 380 nm or shorter. a first glass substrate having a first surface (S1) and a second surface (S2), wherein the first surface faces a vehicle exterior; a second glass substrate having a third surface (S3) and a fourth surface (S4), wherein the fourth surface faces a vehicle interior; a polymer interlayer laminated between the first and second substrates; wherein the interlayer includes ultraviolet light absorbing materials and a first coating including a first luminescent material and being applied on the fourth surface (S4) of the second glass substrate ; wherein the first coating includes a base material in which the first luminescent materials are dispersed, and the base material comprises silicon dioxide; wherein the first luminescent material is excited with light of a wavelength of 380 nm or shorter.
A computer-implemented method for operating an autonomous vehicle , characterized in that the method comprises: in response to sensor data received from a plurality of sensors mounted on an autonomous vehicle , perceiving a surrounding environment based on the sensor data, wherein the surrounding environment includes a plurality of sub-environments surrounding the autonomous vehicle ; for each of the sub-environments, identifying one of a plurality of driving scenario handlers associated with the sub-environment, each driving scenario handler corresponding to one of a plurality of driving scenarios, each of the plurality of driving scenario handlers is to provide driving parameters indicating how the autonomous vehicle should move within the corresponding sub-environment based on the sensor data; and invoking the identified driving scenario handler to determine an individual driving condition within the corresponding sub-environment; determining an overall driving condition for the surrounding environment based on the individual driving conditions provided by the identified driving scenario handlers; planning a route segment based on the overall driving condition of the surrounding environment, generating planning and control data; and controlling the autonomous vehicle based on the planning and control data. in response to sensor data received from a plurality of sensors mounted on an autonomous vehicle , perceiving a surrounding environment based on the sensor data, wherein the surrounding environment includes a plurality of sub-environments surrounding the autonomous vehicle ; for each of the sub-environments, identifying one of a plurality of driving scenario handlers associated with the sub-environment, each driving scenario handler corresponding to one of a plurality of driving scenarios, each of the plurality of driving scenario handlers is to provide driving parameters indicating how the autonomous vehicle should move within the corresponding sub-environment based on the sensor data; and invoking the identified driving scenario handler to determine an individual driving condition within the corresponding sub-environment; identifying one of a plurality of driving scenario handlers associated with the sub-environment, each driving scenario handler corresponding to one of a plurality of driving scenarios, each of the plurality of driving scenario handlers is to provide driving parameters indicating how the autonomous vehicle should move within the corresponding sub-environment based on the sensor data; and invoking the identified driving scenario handler to determine an individual driving condition within the corresponding sub-environment; determining an overall driving condition for the surrounding environment based on the individual driving conditions provided by the identified driving scenario handlers; planning a route segment based on the overall driving condition of the surrounding environment, generating planning and control data; and controlling the autonomous vehicle based on the planning and control data.
An integrated antenna array device comprising: a circuitry component layer having bounds defining a circuitry zone, the circuitry component layer including beam steering circuitry; and an antenna component layer affixed to the circuitry component layer in the circuitry zone, the antenna component layer including a radiating region and an interconnecting region, the radiating region being outside the circuitry zone and including one or more antenna arrays having radiating antenna elements , the interconnecting region being substantially defined within the circuitry zone and interconnecting the beam steering circuitry with the radiating antenna elements , wherein the interconnecting region includes a waveguide at least partially contained in the interconnecting region, wherein at least one of the radiating antenna elements includes a radiating aperture of the waveguide in the radiating region. a circuitry component layer having bounds defining a circuitry zone, the circuitry component layer including beam steering circuitry; and an antenna component layer affixed to the circuitry component layer in the circuitry zone, the antenna component layer including a radiating region and an interconnecting region, the radiating region being outside the circuitry zone and including one or more antenna arrays having radiating antenna elements , the interconnecting region being substantially defined within the circuitry zone and interconnecting the beam steering circuitry with the radiating antenna elements , wherein the interconnecting region includes a waveguide at least partially contained in the interconnecting region, wherein at least one of the radiating antenna elements includes a radiating aperture of the waveguide in the radiating region.
An equipment control apparatus for a vehicle, comprising: an imparting section that imparts, via a steering wheel that contacts a vehicle occupant, a stimulus that the vehicle occupant can feel by a somatic sensation; a detecting section (22; 30) that detects a state of contact of the vehicle occupant with the steering wheel; and a control section that controls driving of the imparting section so as to impart, to the vehicle occupant, a stimulus of a strength that is determined in advance in accordance with the state of contact detected by the detecting section (22; 30), wherein the detecting section detects, as the state of contact, electrostatic capacity between the vehicle occupant and the steering wheel, and wherein the control section controls driving of the imparting section so as to impart, to the vehicle occupant, a stimulus whose strength is greater, the greater the electrostatic capacity detected by the detecting section (22; 30). an imparting section that imparts, via a steering wheel that contacts a vehicle occupant, a stimulus that the vehicle occupant can feel by a somatic sensation; a detecting section (22; 30) that detects a state of contact of the vehicle occupant with the steering wheel; and a control section that controls driving of the imparting section so as to impart, to the vehicle occupant, a stimulus of a strength that is determined in advance in accordance with the state of contact detected by the detecting section (22; 30), wherein the detecting section detects, as the state of contact, electrostatic capacity between the vehicle occupant and the steering wheel, and wherein the control section controls driving of the imparting section so as to impart, to the vehicle occupant, a stimulus whose strength is greater, the greater the electrostatic capacity detected by the detecting section (22; 30).
A method for enabling class of service support for a cache memory of an accelerator device , the method comprising: receiving a request to cache data stored in a memory of the accelerator device coupled with a system interface of a computing device, the memory associated with a page table entry, wherein the page table entry identifies a register storing page attribute information for the page table entry; reading a class of service identifier from the register; allocating a cache way in the cache memory of the accelerator device, wherein the cache way is allocated from a set of cache ways specified as eligible to cache data for memory allocations having the class of service identified by the class of service identifier; and storing the data to the allocated cache way, wherein storing the data to the allocated cache way includes requesting a bank controller to store at least a portion of the data into a region of a memory bank associated with the allocated cache way. receiving a request to cache data stored in a memory of the accelerator device coupled with a system interface of a computing device, the memory associated with a page table entry, wherein the page table entry identifies a register storing page attribute information for the page table entry; reading a class of service identifier from the register; allocating a cache way in the cache memory of the accelerator device, wherein the cache way is allocated from a set of cache ways specified as eligible to cache data for memory allocations having the class of service identified by the class of service identifier; and storing the data to the allocated cache way, wherein storing the data to the allocated cache way includes requesting a bank controller to store at least a portion of the data into a region of a memory bank associated with the allocated cache way.
Process for producing an optical casting comprising at least one volume-holographic optical element by means of a casting operation, the process comprising the following steps: - providing a casting mould comprising a first mould section having a flat, spherical, aspherical or free-form first surface and a second mould section having a flat, spherical, aspherical or free-form second surface, the first mould section being connectable to the second mould section to form the casting mould, - providing at least one holographic optical element, - positioning and aligning the at least one holographic optical element with respect to the first mould section or/and with respect to the second mould section, - combining the first and second mould sections to form the casting mould, - introducing casting material in one or more casting steps, the casting material having a viscosity at 25°C of less than 5000 mPas, - curing the casting material, - removing the cured casting material comprising the at least one holographic optical element from the casting mould, the at least one holographic optical element being at least partly surrounded by the casting material. - providing a casting mould comprising a first mould section having a flat, spherical, aspherical or free-form first surface and a second mould section having a flat, spherical, aspherical or free-form second surface, the first mould section being connectable to the second mould section to form the casting mould, - providing at least one holographic optical element, - positioning and aligning the at least one holographic optical element with respect to the first mould section or/and with respect to the second mould section, - combining the first and second mould sections to form the casting mould, - introducing casting material in one or more casting steps, the casting material having a viscosity at 25°C of less than 5000 mPas, - curing the casting material, - removing the cured casting material comprising the at least one holographic optical element from the casting mould, the at least one holographic optical element being at least partly surrounded by the casting material.
A high-efficiency cordless hair dryer comprising: a main body housing having, at a rear side thereof, an air inlet port through which air is introduced, having, at a front side thereof, a discharge port through which the air is discharged, and having an internal space in which a heating element is mounted; and a power supply module configured to supply power and detachably coupled to the rear side of the main body housing at which the air inlet port is formed, wherein the power supply module is detachably coupled to the main body housing so as to be coincident with a direction of a flow of air in the main body housing , and wherein the power supply module is characterised in that it comprises: a battery mounting body comprising a plurality of battery mounting members disposed in a circumferential direction in a movement passage for air and configured such that a plurality of batteries is detachably coupled to the plurality of battery mounting members , respectively; and a thermally conductive thin film disposed along an inner surface of the battery mounting body and the battery mounting members , and configured to dissipate heat generated from the batteries . a main body housing having, at a rear side thereof, an air inlet port through which air is introduced, having, at a front side thereof, a discharge port through which the air is discharged, and having an internal space in which a heating element is mounted; and a power supply module configured to supply power and detachably coupled to the rear side of the main body housing at which the air inlet port is formed, wherein the power supply module is detachably coupled to the main body housing so as to be coincident with a direction of a flow of air in the main body housing , and wherein the power supply module is characterised in that it comprises: a battery mounting body comprising a plurality of battery mounting members disposed in a circumferential direction in a movement passage for air and configured such that a plurality of batteries is detachably coupled to the plurality of battery mounting members , respectively; and a thermally conductive thin film disposed along an inner surface of the battery mounting body and the battery mounting members , and configured to dissipate heat generated from the batteries . a battery mounting body comprising a plurality of battery mounting members disposed in a circumferential direction in a movement passage for air and configured such that a plurality of batteries is detachably coupled to the plurality of battery mounting members , respectively; and a thermally conductive thin film disposed along an inner surface of the battery mounting body and the battery mounting members , and configured to dissipate heat generated from the batteries .
A communication network arrangement comprising: a plurality of access control components , wherein each of the plurality of access components is connected to at least one base station and configured to exchange session management signalling information and mobility management information related to a mobile terminal connected to the communication network via the at least one base station with the at least one base station ; a session management component , wherein each of the plurality of access control components is configured to forward session management information related to a mobile terminal connected to the communication network via the at least one base station received from the at least one base station to the session management component ; and a mobility management component wherein each of the plurality of access control components is configured to forward mobility management information related to a mobile terminal connected to the communication network via the at least one base station received from the at least one base station to the mobility management component . a plurality of access control components , wherein each of the plurality of access components is connected to at least one base station and configured to exchange session management signalling information and mobility management information related to a mobile terminal connected to the communication network via the at least one base station with the at least one base station ; a session management component , wherein each of the plurality of access control components is configured to forward session management information related to a mobile terminal connected to the communication network via the at least one base station received from the at least one base station to the session management component ; and a mobility management component wherein each of the plurality of access control components is configured to forward mobility management information related to a mobile terminal connected to the communication network via the at least one base station received from the at least one base station to the mobility management component .
A method for operating a session management function in a communication network, the method comprising: receiving policy information from a policy function , the policy information including a maximum number of user equipments, UEs, having traffic carried by a node-level tunnel; and one or more of: a maximum bit rate to be accommodated by the node-level tunnel; a maximum number of UEs having traffic carried by the node-level tunnel; a designation of types of devices to be served by the node-level tunnel; and an indication of types of services to be served by the node-level tunnel; establishing node-level tunnel between at least two network functions in the communication network and configuring the node-level tunnel based on the received policy information, the node-level tunnel shared by a group of UEs defined by a predetermined characteristic, the node-level tunnel carrying different types of traffic sent by the group of UEs, wherein the group of UEs comprises a number of UEs that is less than the maximum number of UEs, wherein the node-level tunnel is established prior to reception, by the session management function, of any session requests sent by any of the UEs of the group of UEs, the session requests to be accommodated using the node-level tunnel.
Wet cleaning device with a cleaning element for mechanical by wet cleaning of a surface to be cleaned and an appliance part region supporting the wet cleaning device relative to the surface , wherein the wet cleaning device has a displacement device which is set up to automatically displace the cleaning element relative to the appliance part region depending on a movement state and/or a fault state of the wet cleaning device , or vice versa, so that the cleaning element can be displaced from a position of use, in which it is lowered onto the surface , into a spaced-apart position, in which it is raised from the surface , characterized in that the displacement device is assigned a detection device , which is set up to distinguish a standstill of the wet cleaning device from a movement of the wet cleaning device , the displacement device being set up to cause a displacement of the cleaning element into the spaced-apart position in the event of a detected standstill, and/or in that the detection device is set up to determine an amount of an actual speed of movement of the wet cleaning device relative to the surface and to compare the amount with a threshold value stored in a memory, the displacement device being set up to cause the cleaning element to be displaced into the distance position when the value falls below the threshold value.
A packaged food product comprising: a container , wherein the container includes: a rim ; at least one wall extending away from the rim , wherein the at least one wall defines a storage area ; and a tool portion extending from the rim beyond the at least one wall and including a plurality of tines ; and a food product being a wet cat food or a wet dog food, retained within the storage area and in contact with the at least one wall , wherein the at least one wall is configured to be readily deformable by a hand of a user to reduce a volume of the storage area , and the packaged food product is configured such that reducing the volume of the storage area causes the food product to exit the storage area , with the plurality of tines being provided for use like a blade in breaking up the food product after the food product is removed from the storage area . a container , wherein the container includes: a rim ; at least one wall extending away from the rim , wherein the at least one wall defines a storage area ; and a tool portion extending from the rim beyond the at least one wall and including a plurality of tines ; and a rim ; at least one wall extending away from the rim , wherein the at least one wall defines a storage area ; and a tool portion extending from the rim beyond the at least one wall and including a plurality of tines ; and a food product being a wet cat food or a wet dog food, retained within the storage area and in contact with the at least one wall , wherein the at least one wall is configured to be readily deformable by a hand of a user to reduce a volume of the storage area , and the packaged food product is configured such that reducing the volume of the storage area causes the food product to exit the storage area , with the plurality of tines being provided for use like a blade in breaking up the food product after the food product is removed from the storage area .