mhurhangee/patent-ind-claim-en huggingface dataset:
An active diaphragm (52; 72; 82) for an active door (51; 71; 81) adapted for the hermetic closure of a conduit, the diaphragm (52; 72; 82) defining: - a support surface (520; 820) arranged on a plane π1; - a geometric axis a perpendicular to the plane π1; and - an axis of rotation r parallel to the plane π1; the active diaphragm (52; 72; 82) comprising: - a hollow (521; 821), completely comprised inside the support surface (520 820); and - a suction conduit (523; 823) adapted to place in communication the hollow (521;; 821) with an aspirator (53; 83) external to the diaphragm (52; 72; 82); wherein the axes a and r are askew with respect to each other, the suction conduit is arranged at least partially along the axis of rotation r; and the active diaphragm has a circular shape; characterized in that said hollow (521; 821) occupies between 80% and 90% of the support surface (520; 820) of the active diaphragm (52; 72; 82). - a support surface (520; 820) arranged on a plane π1; - a geometric axis a perpendicular to the plane π1; and - an axis of rotation r parallel to the plane π1; - a hollow (521; 821), completely comprised inside the support surface (520 820); and - a suction conduit (523; 823) adapted to place in communication the hollow (521;; 821) with an aspirator (53; 83) external to the diaphragm (52; 72; 82); wherein the axes a and r are askew with respect to each other, the suction conduit is arranged at least partially along the axis of rotation r; and the active diaphragm has a circular shape; characterized in that said hollow (521; 821) occupies between 80% and 90% of the support surface (520; 820) of the active diaphragm (52; 72; 82). the axes a and r are askew with respect to each other, the suction conduit is arranged at least partially along the axis of rotation r; and the active diaphragm has a circular shape; characterized in that said hollow (521; 821) occupies between 80% and 90% of the support surface (520; 820) of the active diaphragm (52; 72; 82).
An integrated HOFS meander line polarizer radome comprising: a substrate comprising layers having a dielectric constant, dk, greater than 2.0 and less than 5.0; a higher order Floquet-mode structure, HOFS, comprising HOFS lines disposed in a first subset of the layers; meander lines , to provide a phase shift and match, disposed in a second subset of the layers; and a radome , wherein: at least one layer of the first subset is disposed between the second subset of the layers; there is no gap between the substrate and the radome; and the radome together has a cross-section depth between 508 μm [20 mils] and 1524 μm [60 mils]. a substrate comprising layers having a dielectric constant, dk, greater than 2.0 and less than 5.0; a higher order Floquet-mode structure, HOFS, comprising HOFS lines disposed in a first subset of the layers; meander lines , to provide a phase shift and match, disposed in a second subset of the layers; and a radome , wherein: at least one layer of the first subset is disposed between the second subset of the layers; there is no gap between the substrate and the radome; and the radome together has a cross-section depth between 508 μm [20 mils] and 1524 μm [60 mils]. at least one layer of the first subset is disposed between the second subset of the layers; there is no gap between the substrate and the radome; and the radome together has a cross-section depth between 508 μm [20 mils] and 1524 μm [60 mils].
Autonomous safety lighting unit comprising: a casing comprising a base capable of being mounted on a mounting surface and a diffuser plate of a light beam closing the front of the base , and, a support element for fixing a pictogram label to the outside of the casing , characterised in that : - at least one intermediate mounting system is provided, - the support element comprises at least one fixing means to engage with said intermediate mounting system , and - the base comprises, on the one hand, a first receiving means adapted to receive said intermediate mounting system , such that it engages with the fixing means of the support element in order to hold the pictogram label in a plane substantially parallel to the diffuser plate of the casing , and, on the other hand, a second receiving means , distinct from the first receiving means , adapted to receive said intermediate mounting system , such that it engages with the fixing means of the support element , in order to hold the pictogram label in a plane substantially perpendicular to the diffuser plate of the casing . a casing comprising a base capable of being mounted on a mounting surface and a diffuser plate of a light beam closing the front of the base , and, a support element for fixing a pictogram label to the outside of the casing , characterised in that : - at least one intermediate mounting system is provided, - the support element comprises at least one fixing means to engage with said intermediate mounting system , and - the base comprises, on the one hand, a first receiving means adapted to receive said intermediate mounting system , such that it engages with the fixing means of the support element in order to hold the pictogram label in a plane substantially parallel to the diffuser plate of the casing , and, on the other hand, a second receiving means , distinct from the first receiving means , adapted to receive said intermediate mounting system , such that it engages with the fixing means of the support element , in order to hold the pictogram label in a plane substantially perpendicular to the diffuser plate of the casing . - at least one intermediate mounting system is provided, - the support element comprises at least one fixing means to engage with said intermediate mounting system , and - the base comprises, on the one hand, a first receiving means adapted to receive said intermediate mounting system , such that it engages with the fixing means of the support element in order to hold the pictogram label in a plane substantially parallel to the diffuser plate of the casing , and, on the other hand, a second receiving means , distinct from the first receiving means , adapted to receive said intermediate mounting system , such that it engages with the fixing means of the support element , in order to hold the pictogram label in a plane substantially perpendicular to the diffuser plate of the casing .
A piece of sports equipment comprising: an electronic monitoring device , comprising at least one of a gyroscope or magnetometer , wherein the electronic monitoring device is configured to detect motion of the piece of sports equipment; and a receiving section, comprising at least one protrusion disposed in a predefined arrangement, wherein the receiving section is configured to receive the electronic monitoring device; wherein the at least one protrusion disposed in the predefined arrangement is configured to identify the piece of sports equipment, and wherein different arrangements of protrusions specify different pieces of sports equipment. an electronic monitoring device , comprising at least one of a gyroscope or magnetometer , wherein the electronic monitoring device is configured to detect motion of the piece of sports equipment; and a receiving section, comprising at least one protrusion disposed in a predefined arrangement, wherein the receiving section is configured to receive the electronic monitoring device; wherein the at least one protrusion disposed in the predefined arrangement is configured to identify the piece of sports equipment, and wherein different arrangements of protrusions specify different pieces of sports equipment.
Protective tube with an internal bearing tube for mounting a drive shaft of a hand-guided working implement, wherein the drive shaft and the bearing tube extend in the longitudinal direction of the protective tube and the bearing tube has a central bearing sleeve and the bearing sleeve supports elastic supporting elements and the bearing sleeve is supported against the internal contour of the protective tube by the elastic supporting elements and at least one supporting element of the bearing sleeve bears against the internal contour of the tube cross-section with a contact surface and the supporting element comprises a supporting rib , which extends along the bearing sleeve and has an extension designed as a lug with the contact surface and the contact surface has a distance (r) from the centre (Z) of the tube cross-section , characterised in that • the protective tube has a tube cross-section deviating from a circular form with an internal contour and a centre (Z), • the internal contour of the tube cross-section has at least one first circumferential section with a minimum distance (r min ) from the centre (Z) of the tube cross-section and at least one second circumferential section with a maximum distance (r max ) from the centre (Z) of the tube cross-section , • and the distance (r) of the contact surface from the centre (Z) is greater than the minimum distance (r min ) of the first circumferential section from the centre (Z) and less than or equal to the maximum distance (r max ) of the second circumferential section from the centre (Z). • the protective tube has a tube cross-section deviating from a circular form with an internal contour and a centre (Z), • the internal contour of the tube cross-section has at least one first circumferential section with a minimum distance (r min ) from the centre (Z) of the tube cross-section and at least one second circumferential section with a maximum distance (r max ) from the centre (Z) of the tube cross-section , • and the distance (r) of the contact surface from the centre (Z) is greater than the minimum distance (r min ) of the first circumferential section from the centre (Z) and less than or equal to the maximum distance (r max ) of the second circumferential section from the centre (Z).
Assembly comprising a liftable carrying device for loading freight onto a rail vehicle using a lifting device, and a rail vehicle in the form of a pocket wagon with a pocket for at least partially receiving the carrying device , wherein the carrying device - has a carrying frame with at least two side members that are connected to each other and a traversable support , extending along the at least two side members and running between them, for the freight , wherein in each case at least two gripping edges for the lifting device are arranged on the at least two side members , and wherein the rail vehicle - has at least one cross member extending transversely with respect to a longitudinal extent of the pocket and protruding at least partially into the pocket, wherein at least one of the side members has a free space , into which at least a part of the at least one cross member protrudes when the carrying device is arranged in the pocket , characterized in that the free space is formed by a recess in at least one side member , wherein the traversable support has a free space , into which at least a part of the at least one cross member protrudes when the carrying device is arranged in the pocket , wherein the free space of the support is partly formed by a recess in the support . - has a carrying frame with at least two side members that are connected to each other and a traversable support , extending along the at least two side members and running between them, for the freight , wherein in each case at least two gripping edges for the lifting device are arranged on the at least two side members , and wherein the rail vehicle - has at least one cross member extending transversely with respect to a longitudinal extent of the pocket and protruding at least partially into the pocket,
A ventilator arranged to provide breathing support to a patient in either of an EMG controlled mode in which ventilation is controlled based on an EMG signal representative of breathing activity from the patient, or a second ventilation mode not dependent on said EMG signal, the ventilator comprising input means for receiving said EMG signal , a control unit for controlling the ventilation in dependence of said EMG signal in said EMG controlled mode, and registration means for registering the actual breathing support provided from the ventilator to the patient, characterized in that said control unit is arranged to: - determine, in said EMG controlled mode, if there is asynchrony between the EMG signal and the breathing activity and, in case of asynchrony, switch from EMG controlled ventilation to said second ventilation mode not dependent on the EMG signal, or - determine, in said second ventilation mode not dependent on the EMG signal, if there is synchrony between the EMG signal and the breathing activity and, in case of synchrony, switch from the second ventilation mode to EMG controlled ventilation. - determine, in said EMG controlled mode, if there is asynchrony between the EMG signal and the breathing activity and, in case of asynchrony, switch from EMG controlled ventilation to said second ventilation mode not dependent on the EMG signal, or - determine, in said second ventilation mode not dependent on the EMG signal, if there is synchrony between the EMG signal and the breathing activity and, in case of synchrony, switch from the second ventilation mode to EMG controlled ventilation.
A method of decoding video data using an inter-view residual prediction process, the inter-view residual process comprising: determining a location of a temporal reference block indicated by a temporal motion vector of a current block of video data, wherein the current block and the temporal reference block are located in a first view of video data; determining a location of a disparity reference block of reconstructed video data indicated by a disparity vector of the current block, wherein the disparity reference block is located in a second, different view; using the temporal motion vector combined with the disparity vector to determine a location of a temporal-disparity reference block of the disparity reference block; generating a residual predictor after determining the location of the disparity reference block and the temporal-disparity reference block, wherein the residual predictor is generated based on a difference between the disparity reference block and the temporal-disparity reference block; and decoding the current block based on the temporal reference block and the residual predictor, wherein determining the location of the disparity reference block comprises interpolating the location of the disparity reference block with a first type of interpolation which comprises a bi-linear filter, and wherein determining the location of the temporal-disparity reference block comprising interpolating the location of the temporal reference block with the first type of interpolation. determining a location of a temporal reference block indicated by a temporal motion vector of a current block of video data, wherein the current block and the temporal reference block are located in a first view of video data; determining a location of a disparity reference block of reconstructed video data indicated by a disparity vector of the current block, wherein the disparity reference block is located in a second, different view; using the temporal motion vector combined with the disparity vector to determine a location of a temporal-disparity reference block of the disparity reference block; generating a residual predictor after determining the location of the disparity reference block and the temporal-disparity reference block, wherein the residual predictor is generated based on a difference between the disparity reference block and the temporal-disparity reference block; and decoding the current block based on the temporal reference block and the residual predictor, wherein determining the location of the disparity reference block comprises interpolating the location of the disparity reference block with a first type of interpolation which comprises a bi-linear filter, and wherein determining the location of the temporal-disparity reference block comprising interpolating the location of the temporal reference block with the first type of interpolation.
Method for detecting foreign bodies or other scattering centres in containers which have a container wall made from an optically transparent material, in which tomographic data of at least one volume region in the interior of the containers in which the foreign bodies or scattering centres are detectable are recorded by means of optical coherence tomography, characterized in that the volume region is selected such that it includes at least one area of an inside of the container wall, and that an optical measuring system with a measuring beam and a reference light beam is used for performing the optical coherence tomography, wherein the reflective surface of a reference light mirror on which the reference light beam is reflected has the geometric shape of the inside of the container wall in the selected volume region.
A method for detecting prostate cancer and/or for distinguishing between or among prostate cell proliferative disorders in a subject, comprising: a) contacting genomic DNA derived from a biological sample that has been obtained from the subject, or a fragment thereof, with one reagent or a plurality of reagents for distinguishing between methylated and non methylated CpG dinucleotide sequences within at least one target sequence of the genomic DNA, or fragment thereof, wherein the target sequence comprises, or hybridizes under stringent conditions to, at least 16 contiguous nucleotides of the sequence according to SEQ ID NO: 31 or a complement thereof, said contiguous nucleotides comprising at least one CpG dinucleotide sequence; and b) determining, based at least in part on said distinguishing, the methylation state of at least one target CpG dinucleotide sequence, or an average, or a value reflecting an average methylation state of a plurality of target CpG dinucleotide sequences, wherein the biological sample is selected from the group consisting of biopsy and bodily fluids. a) contacting genomic DNA derived from a biological sample that has been obtained from the subject, or a fragment thereof, with one reagent or a plurality of reagents for distinguishing between methylated and non methylated CpG dinucleotide sequences within at least one target sequence of the genomic DNA, or fragment thereof, wherein the target sequence comprises, or hybridizes under stringent conditions to, at least 16 contiguous nucleotides of the sequence according to SEQ ID NO: 31 or a complement thereof, said contiguous nucleotides comprising at least one CpG dinucleotide sequence; and b) determining, based at least in part on said distinguishing, the methylation state of at least one target CpG dinucleotide sequence, or an average, or a value reflecting an average methylation state of a plurality of target CpG dinucleotide sequences,
Transportable device for providing a cooled oxygen-containing gas stream for delivery to a body of a mammal via the respiratory tract, in particular a human, in order to lower the body temperature, with a storage device having at least one fluid reservoir and with at least one heat exchanger , wherein the storage device is designed to store an oxygen-containing fluid in the fluid reservoir and to provide a withdrawal flow of the oxygen-containing fluid from the fluid reservoir , wherein the heat exchanger is designed to cool the withdrawal flow provided from the fluid storage device by heat transfer to a cooling flow of a stored fluid provided by the storage device before the withdrawal flow is supplied to the body, wherein a cooled, oxygen-containing gas stream emerges from the heat exchanger for delivery to the body, and wherein the withdrawal flow is cooled by the cooling flow after its exit from the fluid reservoir and before its supply to the body, characterised in that the cooling flow is formed by a bypass flow of the oxygen-containing fluid stored in the fluid container , wherein the withdrawal flow and the cooling flow have the same composition and wherein a heated first mass flow of the stored oxygen-containing fluid is cooled to a specific lower temperature by a second mass flow of the same oxygen-containing fluid as a bypass flow, and wherein the cooled oxygen-containing gas flow is obtainable by at least partially combining the withdrawal flow and the cooling flow . with a storage device having at least one fluid reservoir and with at least one heat exchanger , wherein the storage device is designed to store an oxygen-containing fluid in the fluid reservoir and to provide a withdrawal flow of the oxygen-containing fluid from the fluid reservoir , wherein the heat exchanger is designed to cool the withdrawal flow provided from the fluid storage device by heat transfer to a cooling flow of a stored fluid provided by the storage device before the withdrawal flow is supplied to the body, wherein a cooled, oxygen-containing gas stream emerges from the heat exchanger for delivery to the body, and wherein the withdrawal flow is cooled by the cooling flow after its exit from the fluid reservoir and before its supply to the body, characterised in that the cooling flow is formed by a bypass flow of the oxygen-containing fluid stored in the fluid container , wherein the withdrawal flow and the cooling flow have the same composition and wherein a heated first mass flow of the stored oxygen-containing fluid is cooled to a specific lower temperature by a second mass flow of the same oxygen-containing fluid as a bypass flow, and wherein the cooled oxygen-containing gas flow is obtainable by at least partially combining the withdrawal flow and the cooling flow .