mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for video coding comprising: generating a reconstructed reference frame corresponding to a first scene pose, wherein the first scene pose indicates a pose of a scene in relation to a first viewpoint, wherein the first viewpoint corresponds to a first position and orientation of a system for video coding in a 3-dimensional, 3D-, space relative to the scene; determining position and orientation data by tracking a location and orientation of the system in the 3D-space; generating scene pose difference data indicative of a scene pose change from the first scene pose to a second scene pose subsequent to the first scene pose, wherein the second scene pose is in relation to a second viewpoint corresponding to a second position and orientation of the system in the 3D-space relative to the scene, and wherein the scene pose difference data is generated by tracking motion of the system from the first position and orientation to the second position and orientation; applying a projective transformation to at least a portion of the reconstructed reference frame using the scene pose difference data to generate a reprojected reconstructed reference frame ; and performing motion compensation to generate a current reconstructed frame using the reprojected reconstructed reference frame as a motion compensation reference frame. generating a reconstructed reference frame corresponding to a first scene pose, wherein the first scene pose indicates a pose of a scene in relation to a first viewpoint, wherein the first viewpoint corresponds to a first position and orientation of a system for video coding in a 3-dimensional, 3D-, space relative to the scene; determining position and orientation data by tracking a location and orientation of the system in the 3D-space; generating scene pose difference data indicative of a scene pose change from the first scene pose to a second scene pose subsequent to the first scene pose, wherein the second scene pose is in relation to a second viewpoint corresponding to a second position and orientation of the system in the 3D-space relative to the scene, and wherein the scene pose difference data is generated by tracking motion of the system from the first position and orientation to the second position and orientation; applying a projective transformation to at least a portion of the reconstructed reference frame using the scene pose difference data to generate a reprojected reconstructed reference frame ; and performing motion compensation to generate a current reconstructed frame using the reprojected reconstructed reference frame as a motion compensation reference frame.
A device for treating an incision, the device comprising: a generally planar tension relief module , comprising: a central structure in fluid communication with the incision, wherein at least a portion of the central structure is adapted to be aligned with a longitudinal axis of the incision, characterised in that the tension relief module further comprises: opposing adhesive structures coupled to the central structure , wherein the opposing adhesive structures are adapted to be stretched from a relaxed configuration to a first tensile configuration and to return towards the relaxed configuration from the first tensile configuration into a second tensile configuration and impart a contracting force in a direction that is towards the opposing adhesive structure , and opposing pull tabs reversibly coupled to the opposing adhesive structures , wherein the opposing pull tabs are adapted to allow a user to grip an outer portion of the opposing pull tabs and apply tension to the underlying opposing adhesive structures ; and a flexible sealant structure comprising a lower adhesive surface and sized to seal over the tension relief module forming a sealed flow pathway. a generally planar tension relief module , comprising: a central structure in fluid communication with the incision, wherein at least a portion of the central structure is adapted to be aligned with a longitudinal axis of the incision, characterised in that the tension relief module further comprises: opposing adhesive structures coupled to the central structure , wherein the opposing adhesive structures are adapted to be stretched from a relaxed configuration to a first tensile configuration and to return towards the relaxed configuration from the first tensile configuration into a second tensile configuration and impart a contracting force in a direction that is towards the opposing adhesive structure , and opposing pull tabs reversibly coupled to the opposing adhesive structures , wherein the opposing pull tabs are adapted to allow a user to grip an outer portion of the opposing pull tabs and apply tension to the underlying opposing adhesive structures ; and opposing adhesive structures coupled to the central structure , wherein the opposing adhesive structures are adapted to be stretched from a relaxed configuration to a first tensile configuration and to return towards the relaxed configuration from the first tensile configuration into a second tensile configuration and impart a contracting force in a direction that is towards the opposing adhesive structure , and opposing pull tabs reversibly coupled to the opposing adhesive structures , wherein the opposing pull tabs are adapted to allow a user to grip an outer portion of the opposing pull tabs and apply tension to the underlying opposing adhesive structures ; and a flexible sealant structure comprising a lower adhesive surface and sized to seal over the tension relief module forming a sealed flow pathway.
A brush head comprising: a brush neck ; a plurality of bristle tufts , each of which comprises a plurality of bristle strands having a proximal end and a free end , wherein each of the plurality of bristle tufts comprises a proximal end head portion melted into a first shape within a mold; characterised in that an elastomeric matrix comprises at least a portion of the brush neck and the proximal end head portions, wherein the first shape of the proximal end head portion is configured to engage the elastomeric matrix such that the bristle tufts are retained within the elastomeric matrix. a brush neck ; a plurality of bristle tufts , each of which comprises a plurality of bristle strands having a proximal end and a free end , wherein each of the plurality of bristle tufts comprises a proximal end head portion melted into a first shape within a mold; characterised in that an elastomeric matrix comprises at least a portion of the brush neck and the proximal end head portions, wherein the first shape of the proximal end head portion is configured to engage the elastomeric matrix such that the bristle tufts are retained within the elastomeric matrix.
A method of transmitting or receiving signals by a user equipment, UE, in a wireless communication system, the method comprising: receiving information about a resource for uplink, UL, control information transmission and MA signature configuration; determining , based on the resource for the UL control information transmission, whether the resource allocated for the UL control information transmission overlaps a resource allocated for UL data transmission in time; determining whether to perform transmission in orthogonal multiple access, OMA, or non-orthogonal multiple access, NOMA, based on the received information when it is determined that the resource allocated for the UL control information transmission overlaps the resource allocated for the UL data transmission in time; determining whether to multiplex the UL control information if it is determined to perform transmission in NOMA; and if it is determined to multiplex the UL control information, multiplexing the UL control information with UL data based on the information about the MA signature configuration and transmitting a result of the multiplexing. receiving information about a resource for uplink, UL, control information transmission and MA signature configuration; determining , based on the resource for the UL control information transmission, whether the resource allocated for the UL control information transmission overlaps a resource allocated for UL data transmission in time; determining whether to perform transmission in orthogonal multiple access, OMA, or non-orthogonal multiple access, NOMA, based on the received information when it is determined that the resource allocated for the UL control information transmission overlaps the resource allocated for the UL data transmission in time; determining whether to multiplex the UL control information if it is determined to perform transmission in NOMA; and if it is determined to multiplex the UL control information, multiplexing the UL control information with UL data based on the information about the MA signature configuration and transmitting a result of the multiplexing.
A system for performing diagnostic or therapeutic transcranial ultrasound procedures, the system comprising: a support frame configured to be placed around the head of a patient; a plurality of transcranial ultrasound transducer array elements supported by said support frame, wherein said plurality of transcranial ultrasound transducer array elements are supported in pre-selected positions and orientations relative to said support frame for transmitting ultrasound through a skull of the patient, such that far field regions respectively associated with said plurality of transcranial ultrasound transducer array elements spatially overlap within a far field overlap region located within a brain of the patient when said support frame is placed around the head of the patient; control and processing hardware operably connected to said plurality of transcranial ultrasound transducer array elements, wherein said control and processing hardware is configured to: control said plurality of transcranial ultrasound transducer array elements to generate an ultrasound pulse from each transcranial ultrasound transducer array elements, and control the timing of the ultrasound pulses, based on registration data spatially registering the pre-selected positions and orientations of said plurality of transcranial ultrasound transducer array elements with volumetric image data associated with the patient, such that ultrasound energy is focused at a pre-selected region within the far field overlap region. a support frame configured to be placed around the head of a patient; a plurality of transcranial ultrasound transducer array elements supported by said support frame, wherein said plurality of transcranial ultrasound transducer array elements are supported in pre-selected positions and orientations relative to said support frame for transmitting ultrasound through a skull of the patient, such that far field regions respectively associated with said plurality of transcranial ultrasound transducer array elements spatially overlap within a far field overlap region located within a brain of the patient when said support frame is placed around the head of the patient; control and processing hardware operably connected to said plurality of transcranial ultrasound transducer array elements, wherein said control and processing hardware is configured to: control said plurality of transcranial ultrasound transducer array elements to generate an ultrasound pulse from each transcranial ultrasound transducer array elements, and control the timing of the ultrasound pulses, based on registration data spatially registering the pre-selected positions and orientations of said plurality of transcranial ultrasound transducer array elements with volumetric image data associated with the patient, such that ultrasound energy is focused at a pre-selected region within the far field overlap region.
A method performed by a terminal in a wireless communication system, the method comprising: receiving (1305; 1310), from a base station, a radio resource control, RRC, message including information instructing a change from a first packet data convergence protocol, PDCP, entity for a bearer to a second PDCP entity for the bearer, the first PDCP entity and the second PDCP entity being in the terminal, the method being characterized by : identifying whether the first PDCP entity for the bearer is changed to the second PDCP entity for the bearer based on the information indicating the change; transferring first data from the first PDCP entity to the second PDCP entity, in case that the first PDCP entity for the bearer is changed to the second PDCP entity for the bearer; releasing the first PDCP entity; configuring a new PDCP header associated with the first data; and encrypting the first data with a new security key, wherein the first data is associated with a first PDCP sequence number which is greater than or equal to a second PDCP sequence number for which successful transmission is not acknowledged, from a radio link control, RLC, entity. receiving (1305; 1310), from a base station, a radio resource control, RRC, message including information instructing a change from a first packet data convergence protocol, PDCP, entity for a bearer to a second PDCP entity for the bearer, the first PDCP entity and the second PDCP entity being in the terminal, the method being characterized by : identifying whether the first PDCP entity for the bearer is changed to the second PDCP entity for the bearer based on the information indicating the change; transferring first data from the first PDCP entity to the second PDCP entity, in case that the first PDCP entity for the bearer is changed to the second PDCP entity for the bearer; releasing the first PDCP entity; configuring a new PDCP header associated with the first data; and encrypting the first data with a new security key, wherein the first data is associated with a first PDCP sequence number which is greater than or equal to a second PDCP sequence number for which successful transmission is not acknowledged, from a radio link control, RLC, entity.
A greenhouse screen comprising strips of film material that are interconnected by a yarn system of transverse threads and longitudinal threads (13a, 13b; 15; 19) by means of knitting, warp-knitting or weaving process to form a continuous product, and at least some of said strips comprise a film material in the form of a single- or multilayer polyester film provided with a first anti-reflective coating on a first side of the film and a second anti-reflective coating or an anti-reflective layer on a second side of the film, said film material has a transparency of at least 93.5%, wherein said anti-reflective coating(s) has a refractive index at a wavelength of 589 nm that lies below 1.64, and said anti-reflective layer has a refractive index at a wavelength of 589 nm that lies below 1.64 both when measured in the machine direction (MD).
A screen printing machine comprising: a mask holding device configured to hold a mask ; a squeegee device configured to apply and spread cream solder from above to the mask held by the mask holding device ; a conveyance device configured to convey a board below the mask ; a board holding-lifting-lowering device configured to hold the board conveyed by the conveyance device and perform positioning in an upward-downward direction with respect to the mask ; a cleaning device configured to wipe and clean a lower surface of the mask ; an imaging device configured to image a reference mark of the mask and a reference mark of the board ; a driving device configured to move the imaging device and the cleaning device between the mask and the board holding-lifting-lowering device ; and a control device configured to control each of the devices; characterized in that: the control device is further configured to set a lifting and lowering section of the board holding-lifting-lowering device defined by an upper surface height of the board to a reference height (K2) in accordance with a size of the imaging device , and lower the lifting and lowering section from the reference height (K2) in accordance with a size of the cleaning device when the cleaning device is moved. a mask holding device configured to hold a mask ; a squeegee device configured to apply and spread cream solder from above to the mask held by the mask holding device ; a conveyance device configured to convey a board below the mask ; a board holding-lifting-lowering device configured to hold the board conveyed by the conveyance device and perform positioning in an upward-downward direction with respect to the mask ; a cleaning device configured to wipe and clean a lower surface of the mask ; an imaging device configured to image a reference mark of the mask and a reference mark of the board ; a driving device configured to move the imaging device and the cleaning device between the mask and the board holding-lifting-lowering device ; and a control device configured to control each of the devices; characterized in that: the control device is further configured to set a lifting and lowering section of the board holding-lifting-lowering device defined by an upper surface height of the board to a reference height (K2) in accordance with a size of the imaging device , and lower the lifting and lowering section from the reference height (K2) in accordance with a size of the cleaning device when the cleaning device is moved.
A method for sealing and flipping one or more envelopes , the method comprising: receiving a body of a first envelope face-down between a first pair of nip rollers mounted to a frame ; wetting a flap of the first envelope to activate an adhesive substance thereon; rotating the frame with the body of the first envelope secured between the first pair of nip rollers to flip the first envelope face-up and to cause the flap to bear against a paper guide to form a bend between the flap and the body ; and drawing the bend into a sealer nip with the first envelope face-up to press the adhesive substance against the body , to form a seal between the flap and the body of the first envelope . receiving a body of a first envelope face-down between a first pair of nip rollers mounted to a frame ; wetting a flap of the first envelope to activate an adhesive substance thereon; rotating the frame with the body of the first envelope secured between the first pair of nip rollers to flip the first envelope face-up and to cause the flap to bear against a paper guide to form a bend between the flap and the body ; and drawing the bend into a sealer nip with the first envelope face-up to press the adhesive substance against the body , to form a seal between the flap and the body of the first envelope .
Magnetic resonance system , which is designed to carry out an examination of an examination object , wherein the magnetic resonance system comprises: an RF control unit , a gradient control unit and an image sequence controller , which are designed to acquire MR data of a volume portion of the examination object , and an arithmetic unit , which is designed to reconstruct MR images starting from the acquired MR data, wherein the magnetic resonance system is designed on the one hand to create an instruction or information as a function of the acquisition of the MR data, in particular to synchronise the acquisition of the MR data with an action of a device (40; 60), and on the other hand to send the instruction or information to the device (40; 60) via an interface , which device is set up to aid or complement an MR examination process, characterised in that the interface is a standardised REST-based HTTP radio interface of the magnetic resonance system , which is designed to establish a standardised wireless connection to the device (40; 60). an RF control unit , a gradient control unit and an image sequence controller , which are designed to acquire MR data of a volume portion of the examination object , and an arithmetic unit , which is designed to reconstruct MR images starting from the acquired MR data, wherein the magnetic resonance system is designed on the one hand to create an instruction or information as a function of the acquisition of the MR data, in particular to synchronise the acquisition of the MR data with an action of a device (40; 60), and on the other hand to send the instruction or information to the device (40; 60) via an interface , which device is set up to aid or complement an MR examination process, characterised in that the interface is a standardised REST-based HTTP radio interface of the magnetic resonance system , which is designed to establish a standardised wireless connection to the device (40; 60).
A method for coating a sanitary object , wherein a surface of the object is at least partially coated with a coating which comprises a plurality of layers , wherein the individual layers are formed sequentially, wherein a first layer of the coating is made of copper, a second layer of the coating is made of bright nickel, semi-bright nickel or matt nickel, a third layer of the coating is made of a nickel-phosphorus alloy and a fourth layer of the coating is made of a chromium layer, wherein a mass fraction of the phosphorus in the nickel-phosphorus alloy is at least 8% and wherein at least the nickel-phosphorus alloy is applied electrolytically.
An engine system for an off-highway vehicle , comprising: a. a diesel engine configured to drive a driveline of the vehicle; b. an after-treatment arrangement configured to reduce emissions from the engine system ; c. an after-treatment heating element configured to raise an operating temperature of the after-treatment arrangement ; d. an electric energy storage device ; e. a controller configured to direct energy from the electric energy storage device to the after-treatment heating element in order to raise the operating temperature of the after-treatment arrangement ; and f. a motor generator configured to drive the driveline of the vehicle , such that the engine system is configured to drive the driveline of the vehicle via the motor generator in an electric mode (S104), via the diesel engine in an engine mode (S126), or a combination of both modes; characterised in that the system is configured to determine an operating temperature of the after-treatment arrangement and wherein, when the system is operating in the engine mode (S126), when the operating temperature is determined to be decreasing and/or to have reached a pre-determined minimum temperature (S128) and when the amount of charge in the electric energy storage device is determined to be above a predetermined amount (S132), the controller directs the system to run in the electric mode (S114). a. a diesel engine configured to drive a driveline of the vehicle; b. an after-treatment arrangement configured to reduce emissions from the engine system ; c. an after-treatment heating element configured to raise an operating temperature of the after-treatment arrangement ; d. an electric energy storage device ; e. a controller configured to direct energy from the electric energy storage device to the after-treatment heating element in order to raise the operating temperature of the after-treatment arrangement ; and f. a motor generator configured to drive the driveline of the vehicle , such that the engine system is configured to drive the driveline of the vehicle via the motor generator in an electric mode (S104), via the diesel engine in an engine mode (S126), or a combination of both modes;