mhurhangee/patent-ind-claim-en huggingface dataset:
A virtual reality, VR, headset comprising: a plurality of structural components , each structural component being formed from a respective cardboard sheet, the plurality of structural components being folded to form the VR headset , the plurality of structural components including: a plurality of flaps that define an opening for placement of the VR headset near or against a face of a user in a first configuration of the VR headset ; an internal wall of the VR headset ; a bottom wall of the VR headset ; a lens frame assembly ; and a top wall of the VR headset ; and characterized by : an enclosure flap hingeably coupled with the bottom wall of the VR headset , the enclosure flap being configured, in the first configuration of the VR headset , to secure an electronic device in the VR headset against the internal wall and, in a second configuration of the VR headset , to enclose the plurality of flaps that define the opening between the internal wall and the enclosure flap . a plurality of flaps that define an opening for placement of the VR headset near or against a face of a user in a first configuration of the VR headset ; an internal wall of the VR headset ; a bottom wall of the VR headset ; a lens frame assembly ; and a top wall of the VR headset ; and characterized by : an enclosure flap hingeably coupled with the bottom wall of the VR headset , the enclosure flap being configured, in the first configuration of the VR headset , to secure an electronic device in the VR headset against the internal wall and, in a second configuration of the VR headset , to enclose the plurality of flaps that define the opening between the internal wall and the enclosure flap .
Method for determining whether an anomaly is present in a communication network of a motor vehicle , wherein, in a first phase, a discriminator is trained to recognize whether messages (N) transmitted over the communication work indicate the presence of an anomaly, wherein, in the training, the discriminator is supplied with normal data (n) and artificial data (f) generated by a generator as input variable (x) and the discriminator is trained to recognize that no anomaly is present when normal data (n) are supplied thereto and that an anomaly is present when artificial data (f) are supplied thereto, the method comprising the following further steps: in a second phase, the generator is trained to generate artificial data (f) such that said data, when they are supplied to the discriminator , are classified thereby with the greatest possible probability as normal data (n), in a third phase, the discriminator is supplied with content of messages (N) received over the communication network as input variable (x), an output variable (y) is determined based on the input variable (x) and a decision is made as to whether or not the anomaly is present based on the output variable (y), and the training of the discriminator in the first phase and the training of the generator in the second phase are performed alternately, multiple times and repeatedly before the third phase is performed. in a second phase, the generator is trained to generate artificial data (f) such that said data, when they are supplied to the discriminator , are classified thereby with the greatest possible probability as normal data (n), in a third phase, the discriminator is supplied with content of messages (N) received over the communication network as input variable (x), an output variable (y) is determined based on the input variable (x) and a decision is made as to whether or not the anomaly is present based on the output variable (y), and the training of the discriminator in the first phase and the training of the generator in the second phase are performed alternately, multiple times and repeatedly before the third phase is performed.
An internal combustion engine control method comprising: setting exhaust valve timing at a first exhaust valve timing setting and setting intake valve timing at a first intake valve timing setting when in a first operation region (A) for operating an internal combustion engine by spark ignition with an air fuel ratio set at a predetermined air fuel ratio setting; setting the exhaust valve timing at a second exhaust valve timing setting and setting the intake valve timing at a second intake valve timing setting (B) when in a second operation region (B) for operating the internal combustion engine by spark ignition with the air fuel ratio set leaner than the predetermined air fuel ratio setting, wherein the second exhaust valve timing setting is more advanced than the first exhaust valve timing setting, wherein the second intake valve timing setting is more advanced than the first intake valve timing setting; setting a preset time period (T1) in accordance with engine speed and engine load; and in response to a shift of an operating state of the internal combustion engine from the first operation region (A) into the second operation region (B), starting a shift of the air fuel ratio the preset time period (T1) after the exhaust valve timing is actually set at the second exhaust valve timing setting and the intake valve timing is actually set at the second intake valve timing setting. setting exhaust valve timing at a first exhaust valve timing setting and setting intake valve timing at a first intake valve timing setting when in a first operation region (A) for operating an internal combustion engine by spark ignition with an air fuel ratio set at a predetermined air fuel ratio setting; setting the exhaust valve timing at a second exhaust valve timing setting and setting the intake valve timing at a second intake valve timing setting (B) when in a second operation region (B) for operating the internal combustion engine by spark ignition with the air fuel ratio set leaner than the predetermined air fuel ratio setting, wherein the second exhaust valve timing setting is more advanced than the first exhaust valve timing setting, wherein the second intake valve timing setting is more advanced than the first intake valve timing setting; setting a preset time period (T1) in accordance with engine speed and engine load; and in response to a shift of an operating state of the internal combustion engine from the first operation region (A) into the second operation region (B), starting a shift of the air fuel ratio the preset time period (T1) after the exhaust valve timing is actually set at the second exhaust valve timing setting and the intake valve timing is actually set at the second intake valve timing setting.
Blocking apparatus for an electromechanical service brake of a motor vehicle , wherein - the electromechanical service brake comprises a ratchet wheel , rotatably mounted around an axis of rotation (T), which is non-rotatably connectable or connected to a drive shaft of a drive train of the electromechanical service brake , which is rotatable around the same axis of rotation (T), and wherein the blocking apparatus comprises - a locking pawl , which is axially moveable along a displacement axis (A) between a first position, in which the locking pawl releases the ratchet wheel , and a second position, in which the locking pawl engages with the ratchet wheel for blocking, - a movement device for moving the locking pawl along the displacement axis (A), and - a position determination device for determining the position of the locking pawl characterized in that the locking pawl comprises at least one marking segment , which interacts with the position determination device in order to determine the position of the locking pawl . - the electromechanical service brake comprises a ratchet wheel , rotatably mounted around an axis of rotation (T), which is non-rotatably connectable or connected to a drive shaft of a drive train of the electromechanical service brake , which is rotatable around the same axis of rotation (T), and wherein the blocking apparatus comprises - a locking pawl , which is axially moveable along a displacement axis (A) between a first position, in which the locking pawl releases the ratchet wheel , and a second position, in which the locking pawl engages with the ratchet wheel for blocking, - a movement device for moving the locking pawl along the displacement axis (A), and - a position determination device for determining the position of the locking pawl
A device for measuring the flow rate of a fluid flowing in a pipe, especially for a transaction between a hydrocarbon supplier and a purchaser, comprising: - a cylindrical body intended to be interposed between two sections of said pipe, - ultrasound-beam transducers mounted on the main body and intended to measure at least a speed of displacement of the fluid stream when the latter passes through said device , and - at least one converter intended to transform the signals emitted by the transducers into a flow rate signal, the transducers being mounted and distributed in a regular manner around two coaxial parallel rings , the transducers of a first ring being offset angularly with respect to the transducers of the second ring such that no transducer of a first ring (12 ; 13) is aligned with another transducer of the second ring (13 ; 12) with respect to a line parallel to the common axis of the two rings characterized in that each ring comprises n transducers , n being an integer greater than or equal to 2 and the angular offset between the transducers of the two rings is equal to 360°/ . - a cylindrical body intended to be interposed between two sections of said pipe, - ultrasound-beam transducers mounted on the main body and intended to measure at least a speed of displacement of the fluid stream when the latter passes through said device , and - at least one converter intended to transform the signals emitted by the transducers into a flow rate signal,
A solar battery device comprising: a semiconductor substrate including a first-conductivity-type first semiconductor region present on a side of a first surface , and a second-conductivity-type second semiconductor region different from the first-conductivity-type and located on a side of a second surface (lb) that is an opposite side from the first surface ; and a covering part (Pc1, Pc1A, PclB) located on the side of the first surface (la) of the semiconductor substrate , wherein the covering part (Pc1, Pc1A, PclB) includes a laminated portion (Ps1, Ps1A, Ps1B) in which a plurality of layers including a passivation layer and an antireflection layer are present in a laminated state, in the laminated portion (Ps1, Ps1A, Ps1B), the passivation layer includes a region in which a thickness decreases from a side of an outer peripheral portion (lop) toward a side of a central part of the first surface , the passivation layer is located, on the first surface , in the region set to 20% to 50% of the distance between the outer peripheral portion (lop) and the central part , from the outer peripheral portion , such that the passivation layer is not present in the central part and the region therearound , and the passivation layer is located on the second surface (lb) of the semiconductor substrate . a semiconductor substrate including a first-conductivity-type first semiconductor region present on a side of a first surface , and a second-conductivity-type second semiconductor region different from the first-conductivity-type and located on a side of a second surface (lb) that is an opposite side from the first surface ; and a covering part (Pc1, Pc1A, PclB) located on the side of the first surface (la) of the semiconductor substrate , wherein the covering part (Pc1, Pc1A, PclB) includes a laminated portion (Ps1, Ps1A, Ps1B) in which a plurality of layers including a passivation layer and an antireflection layer are present in a laminated state, in the laminated portion (Ps1, Ps1A, Ps1B), the passivation layer includes a region in which a thickness decreases from a side of an outer peripheral portion (lop) toward a side of a central part of the first surface , the passivation layer is located, on the first surface , in the region set to 20% to 50% of the distance between the outer peripheral portion (lop) and the central part , from the outer peripheral portion , such that the passivation layer is not present in the central part and the region therearound , and the passivation layer is located on the second surface (lb) of the semiconductor substrate .
A method performed by a first base station in a communication system, the method comprising: identifying that a first frequency band associated with a first cell and a second frequency band associated with a second cell are a frequency combination in which inter-modulation distortion, IMD, interference or harmonic interference occurs; identifying resource assignment information allocating resources for a terminal, wherein a resource not used by a first cell is allocated as a resource for a cell other than a first cell; transmitting the resource assignment information to a terminal; and transmitting or receiving a signal based on the resource assignment information, wherein, in case that the first frequency band associated with the first cell and the second frequency band associated with the second cell are a frequency combination in which IMD interference occurs, a downlink, DL, resource not used by the first cell is allocated as a DL resource for the second cell, and an uplink, UL, resource not used by the first cell is allocated as an UL resource for the second cell. identifying that a first frequency band associated with a first cell and a second frequency band associated with a second cell are a frequency combination in which inter-modulation distortion, IMD, interference or harmonic interference occurs; identifying resource assignment information allocating resources for a terminal, wherein a resource not used by a first cell is allocated as a resource for a cell other than a first cell; transmitting the resource assignment information to a terminal; and transmitting or receiving a signal based on the resource assignment information, wherein, in case that the first frequency band associated with the first cell and the second frequency band associated with the second cell are a frequency combination in which IMD interference occurs, a downlink, DL, resource not used by the first cell is allocated as a DL resource for the second cell, and an uplink, UL, resource not used by the first cell is allocated as an UL resource for the second cell.
A heat exchange apparatus of a laundry drying appliance, characterized by comprising a flat body , the body having a tiled fluid passage , the fluid passage having an outlet and an inlet adapted to receive a cooling medium that enters the fluid passage from the inlet and leaves the fluid passage from the outlet, wherein the body is at least partially made of metal or a material whose thermal conductivity is not inferior to that of metal, characterized in that the body comprises a through hole , the fluid passages being distributed around the through hole, wherein the body comprises a first sheet and a second sheet that are attached to each other and that are substantially annular, the fluid passage being formed therebetween, wherein the first sheet is generally flat and the second sheet has a pre-formed groove , wherein the fluid passage 110 is formed in a space surrounded by the groove and the first sheet .
Tinostamustine or a pharmaceutically acceptable salt thereof for use in the treatment of T-cell prolymphocytic leukemia (T-PLL) in a patient in need thereof, wherein tinostamustine or a pharmaceutically acceptable salt thereof is not used in combination therapy.
A fluid pressure rotary machine comprising a cylinder block that is fixed to a rotary shaft and includes a plurality of cylinder bores, a piston disposed to be free to slide in each cylinder bore such that a volume chamber is defined thereby, a swash plate that causes the piston to reciprocate as the cylinder block rotates such that the volume chamber expands and contracts, and a valve plate that slides against the cylinder block and includes an intake port and a discharge port communicating with the volume chamber, wherein the valve plate includes a sliding surface formed to project in a spherical shape against the cylinder block , the cylinder block includes a sliding surface formed as an indentation corresponding to the shape of the sliding surface of the valve plate , and a gap is formed between an outer edge of the sliding surface of the valve plate and an outer edge of the sliding surface of the cylinder block , the outer edge of the valve plate being positioned on a radial direction outer side of a central part of the valve plate , the outer edge of the cylinder block being positioned on a radial direction outer side of a central part of the cylinder block , wherein the sliding surface of the cylinder block is formed in a spherical shape, the fluid pressure rotary machine being characterised in that , a curvature radius (R2) of the sliding surface of the cylinder block is set to be larger than a curvature radius (R1) of the sliding surface of the valve plate , and respective sliding surfaces of the cylinder block and the valve plate are configured such that a radius ratio obtained by dividing the curvature radius (R2) of the sliding surface of the cylinder block by the curvature radius (R1) of the sliding surface of the valve plate equals or exceeds 1.004 and is equal to or smaller than 1.012.
A method for providing a credential set to a credential carrier for gaining access to a physical space for a person checking in to gain access to the physical space, the method being performed in a credential provider provided at the same site as the physical space and comprising the steps of: preloading a plurality of credential sets from a server into a local memory , each credential set being usable to gain access to a physical space (16a-c) and each credential set comprising a first validity time; wherein, when a network connection between the credential provider and the server is unavailable , performing the following steps: obtaining a request to provide a credential set for a physical space; retrieving a credential set from the local memory , the credential set being usable to gain access to the physical space indicated in the request; and providing , as long as the first validity time of the credential set has not expired, the retrieved credential set to the credential carrier , wherein the credential set is provided with a second validity time, wherein the second validity time is determined based on the person checking in, and the second validity time is of a shorter duration than the first validity time. preloading a plurality of credential sets from a server into a local memory , each credential set being usable to gain access to a physical space (16a-c) and each credential set comprising a first validity time; wherein, when a network connection between the credential provider and the server is unavailable , performing the following steps: obtaining a request to provide a credential set for a physical space; retrieving a credential set from the local memory , the credential set being usable to gain access to the physical space indicated in the request; and providing , as long as the first validity time of the credential set has not expired, the retrieved credential set to the credential carrier , wherein the credential set is provided with a second validity time, wherein the second validity time is determined based on the person checking in, and the second validity time is of a shorter duration than the first validity time. obtaining a request to provide a credential set for a physical space; retrieving a credential set from the local memory , the credential set being usable to gain access to the physical space indicated in the request; and providing , as long as the first validity time of the credential set has not expired, the retrieved credential set to the credential carrier , wherein the credential set is provided with a second validity time, wherein the second validity time is determined based on the person checking in, and the second validity time is of a shorter duration than the first validity time.
A robot cleaner comprising: a main body ; a light transmitting unit that emits light; an image sensor that senses light reflected or scattered by an obstacle from the light emitted from the light transmitting unit ; a base supporting the light transmitting unit and the image sensor , the base rotatably disposed in the main body ; a rotation drive unit that rotates the base ; and a tilting unit that tilts the light transmitting unit and the image sensor . a main body ; a light transmitting unit that emits light; an image sensor that senses light reflected or scattered by an obstacle from the light emitted from the light transmitting unit ; a base supporting the light transmitting unit and the image sensor , the base rotatably disposed in the main body ; a rotation drive unit that rotates the base ; and a tilting unit that tilts the light transmitting unit and the image sensor .
A method for manufacturing a dual-interface integrated circuit (IC) card component, the method comprising: obtaining a prefabricated single-sided contact base structure , wherein the single-sided contact base structure comprises a substrate with an electrical contact layer ; applying an adhesive material to the substrate on a side opposite to the contact layer of the single-sided contact base structure , obtaining antenna contact leads from a sheet of conductive material , and attaching at least one antenna contact lead to the adhesive material of the single-sided contact base structure to form a dual-interface contact structure , which is a component of a dual-interface IC card . obtaining a prefabricated single-sided contact base structure , wherein the single-sided contact base structure comprises a substrate with an electrical contact layer ; applying an adhesive material to the substrate on a side opposite to the contact layer of the single-sided contact base structure , obtaining antenna contact leads from a sheet of conductive material , and attaching at least one antenna contact lead to the adhesive material of the single-sided contact base structure to form a dual-interface contact structure , which is a component of a dual-interface IC card .