mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for determining a location of a mobile computing device (102; 710) in an acoustic environment associated with an acoustic real-time locating system (100; 700), the method comprising: receiving, by one or more mobile computing devices (102; 710), using one or more transducers, acoustic signals from one or more transmitting devices (104; 750) associated with a real-time locating system (100; 700); characterized by : selecting a set of peaks from the received acoustic signals based at least in part on a magnitude of the peaks and an order in which the peaks were received; assigning a first set of transmitter locations to the selected set of peaks, the first set of transmitter locations specified by an acoustic model specifying a plurality of transmitter locations within an acoustic environment in which the one or more transmitting devices (104; 750) are located; generating one or more model path traces based at least in part on the assigning, each model path trace being a respective estimate of an acoustic impulse response of the acoustic environment with respect to acoustic Dirac-function signals transmitted by one or more transmitting devices (104; 750) at the assigned transmitter locations and received by the mobile computing device (102; 710) at a respective candidate location; comparing, by the mobile computing device (102; 710), the one or more model path traces associated with the first set of transmitter locations to the received acoustic signals; and estimating, by the mobile computing device (102; 710), a location of the mobile computing device (102; 710) based at least in part on the comparison of one or more model path traces to the received acoustic signals. selecting a set of peaks from the received acoustic signals based at least in part on a magnitude of the peaks and an order in which the peaks were received; assigning a first set of transmitter locations to the selected set of peaks, the first set of transmitter locations specified by an acoustic model specifying a plurality of transmitter locations within an acoustic environment in which the one or more transmitting devices (104; 750) are located; generating one or more model path traces based at least in part on the assigning, each model path trace being a respective estimate of an acoustic impulse response of the acoustic environment with respect to acoustic Dirac-function signals transmitted by one or more transmitting devices (104; 750) at the assigned transmitter locations and received by the mobile computing device (102; 710) at a respective candidate location; comparing, by the mobile computing device (102; 710), the one or more model path traces associated with the first set of transmitter locations to the received acoustic signals; and estimating, by the mobile computing device (102; 710), a location of the mobile computing device (102; 710) based at least in part on the comparison of one or more model path traces to the received acoustic signals.
A remote control monitoring system , used to provide a local display screen to a remote computer in real-time to implement a remote real-time display, the remote control monitoring system comprising: characterized in that : a display adapter , connected to a local display ; a processor , comprising a first video signal port and a second video signal port , wherein the first video signal port is connected to the display adapter ; a signal receiver , comprising multiple types of input interfaces for a first video standard and multiple types of output interfaces for a second video standard, wherein the signal receiver is connected to the second video signal port of the processor of a local computer and configured to receive a first video signal corresponding to the local display screen from the second video signal port through one type of the inputted interfaces, convert the first video signal to a second video signal, and enable one type of the output interfaces to output the second video signal in a video standard different from the video standard of the first video signal; wherein the first video signal port and the second video signal port are set to be a mirror display mode to transmit the first video signal of same content; and a remote controller , connected to the signal receiver and configured to transmit the second video signal through a network module to the remote computer , such that a remote display screen corresponding to the local display screen is displayed based on the second video signal; wherein the first video signal is compatible with an output standard of the processor ; the second video signal is compatible with an input standard of the remote controller . a display adapter , connected to a local display ; a processor , comprising a first video signal port and a second video signal port , wherein the first video signal port is connected to the display adapter ; a signal receiver , comprising multiple types of input interfaces for a first video standard and multiple types of output interfaces for a second video standard, wherein the signal receiver is connected to the second video signal port of the processor of a local computer and configured to receive a first video signal corresponding to the local display screen from the second video signal port through one type of the inputted interfaces, convert the first video signal to a second video signal, and enable one type of the output interfaces to output the second video signal in a video standard different from the video standard of the first video signal; wherein the first video signal port and the second video signal port are set to be a mirror display mode to transmit the first video signal of same content; and a remote controller , connected to the signal receiver and configured to transmit the second video signal through a network module to the remote computer , such that a remote display screen corresponding to the local display screen is displayed based on the second video signal; wherein the first video signal is compatible with an output standard of the processor ; the second video signal is compatible with an input standard of the remote controller .
A method of providing access to a shared memory region of a multiprocessor computing device having a first processing core and a second processing core, the method comprising: requesting , by a first process in the first processing core, address negotiation with a second process in the second processing core, wherein the first and second processing cores are heterogeneous; obtaining a first address map of the first process in the first processing core; sending the first address map to the second processing core; receiving a common virtual address in the first processing core in response to sending the first address map; storing the common virtual address as a first attribute of the shared memory region inside a first operating system kernel of the first processing core; and mapping the shared memory region at the common virtual address of the first process, the method further comprising: receiving the first address map in the second processing core; obtaining a second address map of the second process in the second processing core; performing address matching operations in the second processing core to determine whether the first and second address maps include a matching virtual address; storing the matching virtual address as the common virtual address and as a second attribute of the shared memory region of a second operating system kernel of the second processing core; sending the common virtual address to the first processing core; and mapping physical pages of the shared memory region at the common virtual address for the second process in the second processing core. requesting , by a first process in the first processing core, address negotiation with a second process in the second processing core, wherein the first and second processing cores are heterogeneous; obtaining a first address map of the first process in the first processing core; sending the first address map to the second processing core; receiving a common virtual address in the first processing core in response to sending the first address map; storing the common virtual address as a first attribute of the shared memory region inside a first operating system kernel of the first processing core; and mapping the shared memory region at the common virtual address of the first process, receiving the first address map in the second processing core; obtaining a second address map of the second process in the second processing core; performing address matching operations in the second processing core to determine whether the first and second address maps include a matching virtual address; storing the matching virtual address as the common virtual address and as a second attribute of the shared memory region of a second operating system kernel of the second processing core; sending the common virtual address to the first processing core; and mapping physical pages of the shared memory region at the common virtual address for the second process in the second processing core.
A distributor assembly comprising: a manifold body comprising distribution jets for directing a semiconductor vapor from the manifold body; a vaporizer chamber formed in the manifold body, wherein the vaporizer chamber comprises a powder inlet and a vapor outlet; a powder injector disposed in the powder inlet for delivering semiconductor powder to the vaporizer chamber; a vapor path formed through the manifold body, wherein the vapor path comprises a first end disposed at the vapor outlet of the vaporizer chamber and a second end disposed at the distribution jets; a filter disposed within the vapor path, wherein the filter comprises a porous body that defines a filter cavity; and characterized by a heater configured to heat the manifold body and isolated from the filter by the manifold body, wherein the heater heats the vaporizer chamber, whereby the semiconductor powder is transformed into the semiconductor vapor. a manifold body comprising distribution jets for directing a semiconductor vapor from the manifold body; a vaporizer chamber formed in the manifold body, wherein the vaporizer chamber comprises a powder inlet and a vapor outlet; a powder injector disposed in the powder inlet for delivering semiconductor powder to the vaporizer chamber; a vapor path formed through the manifold body, wherein the vapor path comprises a first end disposed at the vapor outlet of the vaporizer chamber and a second end disposed at the distribution jets; a filter disposed within the vapor path, wherein the filter comprises a porous body that defines a filter cavity; and characterized by a heater configured to heat the manifold body and isolated from the filter by the manifold body, wherein the heater heats the vaporizer chamber, whereby the semiconductor powder is transformed into the semiconductor vapor.
Packaging laminate comprising a support layer made of aluminum, which is bonded to a polyolefin layer via an adhesive layer or adhesion promoter layer , wherein the surface of the support layer facing the adhesive layer or adhesion promoter layer comprises a modified surface layer produced by silicatization or titanization.
A memory access device for accessing a memory line stored in a memory in a processor-based system , comprising: a control port configured to receive a read access request comprising a first logical memory address; and a memory access port configured to access the memory ; the memory access device configured to: determine a priority of the read access request among a higher priority read access request and a lower priority read access request; characterised in that : in response to determining that the read access request is a higher priority read access request, retrieve through the memory access port , a first compressed higher priority memory line from the memory at the first logical memory address of the read access request; and in response to determining that the read access request is a lower priority read access request, retrieve through the memory access port , a first compressed lower priority memory line from the memory at a plurality of contiguous physical memory addresses derived from the first logical memory address of the read access request. a control port configured to receive a read access request comprising a first logical memory address; and a memory access port configured to access the memory ; the memory access device configured to: determine a priority of the read access request among a higher priority read access request and a lower priority read access request; characterised in that : in response to determining that the read access request is a higher priority read access request, retrieve through the memory access port , a first compressed higher priority memory line from the memory at the first logical memory address of the read access request; and in response to determining that the read access request is a lower priority read access request, retrieve through the memory access port , a first compressed lower priority memory line from the memory at a plurality of contiguous physical memory addresses derived from the first logical memory address of the read access request. in response to determining that the read access request is a higher priority read access request, retrieve through the memory access port , a first compressed higher priority memory line from the memory at the first logical memory address of the read access request; and in response to determining that the read access request is a lower priority read access request, retrieve through the memory access port , a first compressed lower priority memory line from the memory at a plurality of contiguous physical memory addresses derived from the first logical memory address of the read access request.
An air conduit securing element for detachably fastening a tubular and corrugated air conduit on a connecting branch of a ventilation housing , wherein the air conduit securing element has a base body that in a cross section has an annular shape and can encompass and rest on the connecting branch in a state, in which it is mounted on the connecting branch , wherein at least one fixing element is integrally formed on the base body and extends inward starting from the base body , which fixing element can in the mounted state be arranged such that it lies at least in a through-opening formed in the connecting branch and is supported on a fixing section of an edge of the through-opening , wherein at least one catch element is integrally formed on the base body and extends inward starting from the base body in an engaged position, in which the at least one catch element can engage into a corrugation trough of the air conduit, which catch element can in the mounted state extend into the connecting branch through the through-opening , and wherein the at least one catch element is supported on the base body by means of a pivot pin such that it is pivotable from the engaged position in an axial direction referred to the base body .
A near-eye diffraction grating-based backlight display comprising: a planar plate light guide having a plurality of diffraction grating segments at a surface of the plate light guide, the diffraction grating segments having straight diffractive features, wherein the diffraction grating segments are configured to collectively diffractively couple light out of the plate light guide and to concentrate light coupled out of the plate light guide into an eyebox ; and a first planar light valve array oriented substantially parallel to the plate light guide and positioned so that the light coupled out of the plate light guide passes through the first light valve array to form an image in the eyebox. a planar plate light guide having a plurality of diffraction grating segments at a surface of the plate light guide, the diffraction grating segments having straight diffractive features, wherein the diffraction grating segments are configured to collectively diffractively couple light out of the plate light guide and to concentrate light coupled out of the plate light guide into an eyebox ; and a first planar light valve array oriented substantially parallel to the plate light guide and positioned so that the light coupled out of the plate light guide passes through the first light valve array to form an image in the eyebox.
An optical apparatus comprising: a silicon semiconductor substrate ; a germanium-silicon absorption layer coupled to the silicon semiconductor substrate , wherein the germanium-silicon absorption layer includes a GeSi alloy with composition ranging from more than 10% Ge to 100% Ge; one or more first switches arranged in the germanium-silicon absorption layer , the silicon semiconductor substrate , or both thereof, configured to receive a first control signal at the germanium-silicon absorption layer or the silicon semiconductor substrate and output a first output signal to a first readout circuit through the germanium-silicon absorption layer or the silicon semiconductor substrate ; and one or more second switches arranged in the germanium-silicon absorption layer , the silicon semiconductor substrate , or both thereof, configured to receive a second control signal at the germanium-silicon absorption layer or the silicon semiconductor substrate and output a second output signal to a second readout circuit through the germanium-silicon absorption layer or the silicon semiconductor substrate . a silicon semiconductor substrate ; a germanium-silicon absorption layer coupled to the silicon semiconductor substrate , wherein the germanium-silicon absorption layer includes a GeSi alloy with composition ranging from more than 10% Ge to 100% Ge; one or more first switches arranged in the germanium-silicon absorption layer , the silicon semiconductor substrate , or both thereof, configured to receive a first control signal at the germanium-silicon absorption layer or the silicon semiconductor substrate and output a first output signal to a first readout circuit through the germanium-silicon absorption layer or the silicon semiconductor substrate ; and one or more second switches arranged in the germanium-silicon absorption layer , the silicon semiconductor substrate , or both thereof, configured to receive a second control signal at the germanium-silicon absorption layer or the silicon semiconductor substrate and output a second output signal to a second readout circuit through the germanium-silicon absorption layer or the silicon semiconductor substrate .
An apparatus for filling a container to be filled with a filling product and for closing the filled container by means of a container closure , comprising a treatment chamber for receiving the container in a sealing manner and a closing apparatus movable relative to the treatment chamber for applying a container closure to the container received in the treatment chamber , wherein the closing apparatus is configured and constructed to be able to process at least two different types of container closures , and the treatment chamber has a receiving opening for receiving the closing apparatus , wherein the receiving opening is closable in a sealing manner by means of the closing apparatus , wherein the closing apparatus is movable into a treatment position in which an attachment of the closing apparatus is arranged inside the treatment chamber , and into a transfer position in which the attachment is arranged outside the treatment chamber and in which a container closure can be fed to the attachment , characterized in that outside the treatment chamber , in each case one container closure feed is provided for each type of container closure, and the closing apparatus can be moved into a separate transfer position for each type of container closure . a treatment chamber for receiving the container in a sealing manner and a closing apparatus movable relative to the treatment chamber for applying a container closure to the container received in the treatment chamber , wherein the closing apparatus is configured and constructed to be able to process at least two different types of container closures , and the treatment chamber has a receiving opening for receiving the closing apparatus , wherein the receiving opening is closable in a sealing manner by means of the closing apparatus , wherein the closing apparatus is movable into a treatment position in which an attachment of the closing apparatus is arranged inside the treatment chamber , and into a transfer position in which the attachment is arranged outside the treatment chamber and in which a container closure can be fed to the attachment , characterized in that outside the treatment chamber , in each case one container closure feed is provided for each type of container closure, and the closing apparatus can be moved into a separate transfer position for each type of container closure .
A false wall consisting of a stretched fabric held on its periphery by one edge which is fixed to rails integral with the ceiling and/or the walls of a room, said false wall comprising at least one separating rail consisting of the assembly of a first section and a second section , each of the sections comprising an assembly for holding a fabric, consisting of two parallel wings (7a,7'a,7b,7'b) spaced apart from each other and connected by a back fabric (7c,7'c), namely a first outer wing (7a,7'a) and a second inner wing (7b,7'b) of lower height which ends with a shoulder which extends towards the first wing (7a,7'a) and ends at a distance therefrom able to allow the passage of the edge , so that the latter can come to rest by being simply supported by the shoulder , the second section being secured to the first section by snap-fastening means, in such a way that after rotation of the second section about a longitudinal axis (A) parallel to the longitudinal direction of the first section the large wings (7a,7'a) converge towards each other and come into contact, the first section comprising a base (B) connected to the holding assembly by means of connecting plates and consisting of a base plate , characterized in that the first section comprises a first, a second and a third connecting plate originating from the base plate , the first connecting plate , a portion of which is coplanar with the large wing , projecting towards a first end of the base plate , the second connecting plate projecting towards the middle of the base plate on the same side, the third connecting plate connecting the first plate and the second plate and being in contact with the holding assembly , in that the first section has a channel which is circular and open in cross-section, and through the centre of which the axis of rotation (A) passes, being arranged at the intersection of the second connecting plate and the base plate , the third connecting plate having a longitudinal recess on the same side as the channel , and in that the second section has, on the side opposite the holding assembly , and projecting towards the channel , a hinge plate which ends with a tubular longitudinal bead , the diameter of which corresponds, to the nearest assembly clearance, to the internal diameter of the channel and comprises a lug projecting on the same side as the bead and the small wing (7'b) of the holding assembly .