mhurhangee/patent-ind-claim-en huggingface dataset:
A device for the beaming and collection of light emitted by light emitters, comprising a planar optical antenna, said planar optical antenna comprising in the order along a direction of extension: - at least a reflector ; - a spacer medium contiguous to the reflector ; - one or more incoherent or coherent light emitters emitting at wavelength λ and placed in the spacer medium or contiguous to the spacer medium at a distance d from said at least a reflector; the device further comprising, after said planar optical antenna along said direction of extension, one or more optical receivers corresponding to the one or more incoherent or coherent light emitters; wherein: - the distance d is such that λ/ ≤ d ≤ λ/ , wherein n is the refraction index of the spacer medium ; - the reflectivity of the at least a reflector is larger than 80%; - said planar optical antenna further comprises, after the spacer medium along said extension direction, in front of the at least a reflector , a semi-opaque thin film , which has a reflectivity in the range of 50-99% and a thickness smaller than λ, wherein the wavelength λ is red-shifted with respect to the resonance wavelength λ RES of the system comprising the reflector, the semi-opaque thin film and the spacer medium . - at least a reflector ; - a spacer medium contiguous to the reflector ; - one or more incoherent or coherent light emitters emitting at wavelength λ and placed in the spacer medium or contiguous to the spacer medium at a distance d from said at least a reflector; the device further comprising, after said planar optical antenna along said direction of extension, one or more optical receivers corresponding to the one or more incoherent or coherent light emitters; wherein: - the distance d is such that λ/ ≤ d ≤ λ/ , wherein n is the refraction index of the spacer medium ; - the reflectivity of the at least a reflector is larger than 80%; - said planar optical antenna further comprises, after the spacer medium along said extension direction, in front of the at least a reflector , a semi-opaque thin film , which has a reflectivity in the range of 50-99% and a thickness smaller than λ, - the distance d is such that λ/ ≤ d ≤ λ/ , wherein n is the refraction index of the spacer medium ; - the reflectivity of the at least a reflector is larger than 80%; - said planar optical antenna further comprises, after the spacer medium along said extension direction, in front of the at least a reflector , a semi-opaque thin film , which has a reflectivity in the range of 50-99% and a thickness smaller than λ, wherein the wavelength λ is red-shifted with respect to the resonance wavelength λ RES of the system comprising the reflector, the semi-opaque thin film and the spacer medium .
Supporting wheel for motor vehicles, comprising: - a load-bearing structure comprising an outer rolling surface and two opposite side walls which extend on parallel planes and between which there is at least one through hole ; - a central reinforcement body intended to be coupled to the hub (M) of a motor vehicle and associated with said load-bearing structure ; and wherein said load-bearing structure is at least partly made of plastic material, characterized by the fact that said central reinforcement body has a cylindrical shape projecting cantilevered from one of said side walls , said central reinforcement body comprising a coupling element associated with said through hole and provided with a plurality of housing seats , each of them being intended to house a connecting element for the union of said central reinforcement body to said hub (M). - a load-bearing structure comprising an outer rolling surface and two opposite side walls which extend on parallel planes and between which there is at least one through hole ; - a central reinforcement body intended to be coupled to the hub (M) of a motor vehicle and associated with said load-bearing structure ; and
A method for allocating resources, comprising: receiving, by a synchronous allocation module of a forwarding unit, a resource application request for a service of the forwarding unit (s101), wherein the resource application request carries index information of the service of the forwarding unit, the forwarding unit is located in a forwarding layer of a switch, the synchronous allocation module stores first resource allocation information periodically synchronized by a management and allocation module on a management layer of the switch, and the first resource allocation information includes information about allocated resources and unallocated resources; searching (s102) for, by the synchronous allocation module, from the first resource allocation information stored therein, a first resource that is not used and matches the index information, according to the index information and resource allocation information of the forwarding unit; and allocating (s103), by the synchronous allocation module, the first resource autonomously to the service for use. receiving, by a synchronous allocation module of a forwarding unit, a resource application request for a service of the forwarding unit (s101), wherein the resource application request carries index information of the service of the forwarding unit, the forwarding unit is located in a forwarding layer of a switch, the synchronous allocation module stores first resource allocation information periodically synchronized by a management and allocation module on a management layer of the switch, and the first resource allocation information includes information about allocated resources and unallocated resources; searching (s102) for, by the synchronous allocation module, from the first resource allocation information stored therein, a first resource that is not used and matches the index information, according to the index information and resource allocation information of the forwarding unit; and allocating (s103), by the synchronous allocation module, the first resource autonomously to the service for use.
A battery cell tray comprising: a plurality of battery cells stacked in a first direction: a lower tray which has an open upper portion, the plurality of battery cells seated in the lower tray , and which includes first openings at opposite sides, through which leads of opposite ends of each of the plurality of battery cells are exposed; an upper tray which has an open lower portion and covers the lower tray and is coupled to the lower tray; lead connectors installed on sides of the upper tray and coupled to the leads of each of the plurality of battery cells ; an electric wire configured to connect the lead connectors ; and an instrument for measuring an electrical characteristic of each of the plurality of battery cells ; the instrument for measuring an electrical characteristic coupled to the electric wire . a lower tray which has an open upper portion, the plurality of battery cells seated in the lower tray , and which includes first openings at opposite sides, through which leads of opposite ends of each of the plurality of battery cells are exposed; an upper tray which has an open lower portion and covers the lower tray and is coupled to the lower tray; lead connectors installed on sides of the upper tray and coupled to the leads of each of the plurality of battery cells ; an electric wire configured to connect the lead connectors ; and an instrument for measuring an electrical characteristic of each of the plurality of battery cells ; the instrument for measuring an electrical characteristic coupled to the electric wire .
A package substrate , comprising: a first conductive layer in a first dielectric ; a second dielectric over the first dielectric ; a second conductive layer in the second dielectric , wherein the second conductive layer includes a plurality of first traces and a plurality of second traces ; a third conductive layer over the second dielectric ; a high dielectric constant (Dk) region and a low DK region in the first and second dielectrics, wherein the high Dk region surrounds the plurality of first traces , and wherein the low Dk region surrounds the plurality of second traces ; and characterized by a dielectric region in the first and second dielectrics, wherein the dielectric region separates the high Dk region and the low Dk region . a first conductive layer in a first dielectric ; a second dielectric over the first dielectric ; a second conductive layer in the second dielectric , wherein the second conductive layer includes a plurality of first traces and a plurality of second traces ; a third conductive layer over the second dielectric ; a high dielectric constant (Dk) region and a low DK region in the first and second dielectrics, wherein the high Dk region surrounds the plurality of first traces , and wherein the low Dk region surrounds the plurality of second traces ; and characterized by a dielectric region in the first and second dielectrics, wherein the dielectric region separates the high Dk region and the low Dk region .
A method for receiving data of an enhanced physical downlink control channel, e-PDCCH, comprising: receiving, on available resource elements of two different antenna ports, two data streams of the e-PDCCH on the two different antenna ports; and decoding the two data streams of the e-PDCCH; wherein the two data streams are mapped onto the available resource elements of the two different antenna ports; wherein demodulation reference signals, DMRSs, corresponding to the two different antenna ports are respectively borne on two second resource groups of a first resource group, wherein the first resource group is a physical resource block pair, and each of the second resource groups comprises 12 resource elements, REs, wherein the 12 REs of one of the two second resource groups occupy three subcarriers over four orthogonal frequency division multiplexing, OFDM, symbols, and the 12 REs of the other one of the two second resource groups occupy another three subcarriers over the same four OFDM symbols, wherein each of the second resource groups is capable of bearing at least two demodulation reference signals, DMRSs, and wherein each DMRS of the at least two DMRSs is corresponding to different antenna ports. receiving, on available resource elements of two different antenna ports, two data streams of the e-PDCCH on the two different antenna ports; and decoding the two data streams of the e-PDCCH; wherein the two data streams are mapped onto the available resource elements of the two different antenna ports; wherein demodulation reference signals, DMRSs, corresponding to the two different antenna ports are respectively borne on two second resource groups of a first resource group, wherein the first resource group is a physical resource block pair, and each of the second resource groups comprises 12 resource elements, REs, wherein the 12 REs of one of the two second resource groups occupy three subcarriers over four orthogonal frequency division multiplexing, OFDM, symbols, and the 12 REs of the other one of the two second resource groups occupy another three subcarriers over the same four OFDM symbols, wherein each of the second resource groups is capable of bearing at least two demodulation reference signals, DMRSs, and wherein each DMRS of the at least two DMRSs is corresponding to different antenna ports.
A computer implemented method of protecting data in a message for communication from a sender to a receiver , the sender and receiver sharing a secret , characterised in that the method comprises: splitting the message into a plurality of ordered message blocks , the order being a proper order such that an aggregation of the blocks in the proper order constitutes the message; generating a hash value for each message block, each hash value being generated on the basis of at least a content of the block and the secret; generating, for each block, an encoded indication of a position of the block in the proper order of blocks, the encoding being reversible and based on at least the hash value for the block and a position of the block in the proper order; communicating the blocks to the receiver in an order different to the proper order so as to obfuscate the message; and communicating the encoded indications to the receiver in the proper order such that the blocks can be reassembled by the receiver in the proper order on the basis of the shared secret. splitting the message into a plurality of ordered message blocks , the order being a proper order such that an aggregation of the blocks in the proper order constitutes the message; generating a hash value for each message block, each hash value being generated on the basis of at least a content of the block and the secret; generating, for each block, an encoded indication of a position of the block in the proper order of blocks, the encoding being reversible and based on at least the hash value for the block and a position of the block in the proper order; communicating the blocks to the receiver in an order different to the proper order so as to obfuscate the message; and communicating the encoded indications to the receiver in the proper order such that the blocks can be reassembled by the receiver in the proper order on the basis of the shared secret.
A dialysis system , comprising: a sorbent device ; a dialysate reservoir fluidly connected to the sorbent device and arranged to collect dialysate exiting the sorbent device ; a first pump in fluid communication with the sorbent device , the first pump positioned upstream of the sorbent device and configured to introduce dialysate into the sorbent device ; and a second pump in fluid communication with the dialysate reservoir , the second pump positioned downstream of the sorbent device and configured to draw dialysate out of the dialysate reservoir , characterised in that the sorbent device and the dialysate reservoir sit on a single weight scale . a sorbent device ; a dialysate reservoir fluidly connected to the sorbent device and arranged to collect dialysate exiting the sorbent device ; a first pump in fluid communication with the sorbent device , the first pump positioned upstream of the sorbent device and configured to introduce dialysate into the sorbent device ; and a second pump in fluid communication with the dialysate reservoir , the second pump positioned downstream of the sorbent device and configured to draw dialysate out of the dialysate reservoir , characterised in that the sorbent device and the dialysate reservoir sit on a single weight scale .
An assembly, comprising: a gas impermeable package defining a sealed cavity; a urinary or anal catheter within the sealed cavity, the urinary or anal catheter comprising a hydrophilic coating on the outer surface of the shaft of the catheter; and a radiation activated liquid releasing gel containing a liquid within the sealed cavity, the gel configured to release liquid upon exposure to sterilizing radiation, and the gel comprising between 0.1 wt% and 5 wt% gellan gum. a gas impermeable package defining a sealed cavity; a urinary or anal catheter within the sealed cavity, the urinary or anal catheter comprising a hydrophilic coating on the outer surface of the shaft of the catheter; and a radiation activated liquid releasing gel containing a liquid within the sealed cavity, the gel configured to release liquid upon exposure to sterilizing radiation, and the gel comprising between 0.1 wt% and 5 wt% gellan gum.
A manufacturing method for a three-dimensional structure (M) comprising: forming unit layers (D) using at least one of a first flowable composition (L1) including first powder (F1) and a second flowable (L2) composition including second powder (F2); and solidifying at least one of the first powder and the second powder in the unit layers, wherein in the forming the unit layers, both of the first flowable composition and the second flowable composition are caused to be present in a plane direction crossing a thickness direction of the unit layers, wherein the solidifying the powder is performed after the forming of all the layers is completed, wherein one side end side in the plane direction (X) forms a first side end layer (S1) from the first flowable composition including the first powder, the other side end side in the plane direction forms a second side end layer (S2) from the second flowable composition including the second powder, and between the first side end layer and the second side end layer, a composite material layer (S3) including the first flowable composition including the first powder and the second flowable composition including the second powder, side by side, is formed, and wherein, in the composite material layer, the presence ratio of the first flowable composition including the first powder gradually decreases and the presence ratio of the second flowable composition including the second powder gradually increases in a direction from the first side end layer to the second side end layer. forming unit layers (D) using at least one of a first flowable composition (L1) including first powder (F1) and a second flowable (L2) composition including second powder (F2); and solidifying at least one of the first powder and the second powder in the unit layers, wherein in the forming the unit layers, both of the first flowable composition and the second flowable composition are caused to be present in a plane direction crossing a thickness direction of the unit layers, wherein the solidifying the powder is performed after the forming of all the layers is completed, wherein one side end side in the plane direction (X) forms a first side end layer (S1) from the first flowable composition including the first powder, the other side end side in the plane direction forms a second side end layer (S2) from the second flowable composition including the second powder, and between the first side end layer and the second side end layer, a composite material layer (S3) including the first flowable composition including the first powder and the second flowable composition including the second powder, side by side, is formed, and wherein, in the composite material layer, the presence ratio of the first flowable composition including the first powder gradually decreases and the presence ratio of the second flowable composition including the second powder gradually increases in a direction from the first side end layer to the second side end layer.
Retaining device for a hollow needle for puncturing the lid of a blood sampling tube, comprising a first retaining element , which can be secured releasably on a base plate of an automatic analysis apparatus, which base plate is movable in an automated manner, and a second retaining element , which is connected to the first retaining element , characterized in that at least one bearing bushing is provided, which is fixed between the retaining elements and in which the hollow needle is mounted, wherein the first retaining element comprises a hollow space in which an abutment , secured on the hollow needle , is enclosed in such a way that the movement of the hollow needle in the at least one bearing bushing is limited.
A furniture hinge having a damping function, comprising: a first bracket adapted to be secured to a furniture door; a second bracket adapted to be secured to a furniture cabin by a mounting plate ; a first linkage member , one end of which is adapted to be rotationally connected to the second bracket by means of a third pin and the other end of which is rotationally connected to the first bracket by means of one arm of a u-shaped connector ; a second linkage member , one end of which is adapted to be rotationally connected to the second bracket by means of a first pin and the other end of which is rotationally connected to the first bracket by means of the other arm of a u-shaped connector ; a torsion spring which is fitted around the first pin for urging the furniture door to move from an opened position to a closed position relative to the furniture cabin; a damping mechanism having a damper and a housing being slidebly holded within the second bracket and supported by the first linkage member , the damper having a cylinder body (91.1) which is partially extended out from the housing ; the damping mechanism is configured such that when the furniture door is closed onto the furniture cabin, the first linkage member drives the housing over the cylinder body (91.1); characterized in that one end of the torsion spring is secured to the second bracket so as to be retained immovable there by a second pin and the other end of the torsion spring leans onto the u-shaped connector ; and the cylinder body (91.1) abuts against to the second pin . a first bracket adapted to be secured to a furniture door; a second bracket adapted to be secured to a furniture cabin by a mounting plate ; a first linkage member , one end of which is adapted to be rotationally connected to the second bracket by means of a third pin and the other end of which is rotationally connected to the first bracket by means of one arm of a u-shaped connector ; a second linkage member , one end of which is adapted to be rotationally connected to the second bracket by means of a first pin and the other end of which is rotationally connected to the first bracket by means of the other arm of a u-shaped connector ; a torsion spring which is fitted around the first pin for urging the furniture door to move from an opened position to a closed position relative to the furniture cabin; a damping mechanism having a damper and a housing being slidebly holded within the second bracket and supported by the first linkage member , the damper having a cylinder body (91.1) which is partially extended out from the housing ; the damping mechanism is configured such that when the furniture door is closed onto the furniture cabin, the first linkage member drives the housing over the cylinder body (91.1); characterized in that one end of the torsion spring is secured to the second bracket so as to be retained immovable there by a second pin and the other end of the torsion spring leans onto the u-shaped connector ; and the cylinder body (91.1) abuts against to the second pin .
A method for analyzing a cable into which a reference signal s(t) of bounded temporal support is injected, comprising the following steps: - Acquiring a measurement signal r(t) characteristic of the measurement of the reflection of said reference signal s in the cable, - Identifying and selecting at least one point of said measurement signal r corresponding to when the signal crosses a zero value and whose abscissa is denoted t 0 , said method being characterized in that it comprises the following steps: - Generating , over a time interval centered around said at least one point with abscissa t 0 , at least one modified signal z(t) with the aid of the following relation z(t 0 +t) = r(t 0 +t)-r(t 0 -t), - Identifying at least one possible fault on the cable on the basis of the analysis of said at least one modified signal z(t). - Acquiring a measurement signal r(t) characteristic of the measurement of the reflection of said reference signal s in the cable, - Identifying and selecting at least one point of said measurement signal r corresponding to when the signal crosses a zero value and whose abscissa is denoted t 0 , said method being characterized in that it comprises the following steps: - Generating , over a time interval centered around said at least one point with abscissa t 0 , at least one modified signal z(t) with the aid of the following relation z(t 0 +t) = r(t 0 +t)-r(t 0 -t), - Identifying at least one possible fault on the cable on the basis of the analysis of said at least one modified signal z(t).