mhurhangee/patent-ind-claim-en huggingface dataset:
A sample holder unit for single-crystal X-ray structure analysis using a porous complex crystal, the sample holder unit comprising a sample holder used in a single-crystal X-ray structure analysis apparatus, and an applicator in which the sample holder can be stored, wherein the sample holder comprises: a base part attachable to a goniometer in the single-crystal X-ray structure analysis apparatus, the base part formed to have a sample introduction structure into which a sample to be soaked in the porous complex crystal is introduced; and a holding part that can hold the porous complex crystal capable of soaking the sample in a plurality of fine pores formed therein, the holding part formed to the base part , and the applicator comprises: an opening and a storing space in which the sample holder that holds the porous complex crystal can be stored; a seal part provided on a contact surface with the sample holder stored in the storing space ; and a pull-out prevention part that can prevent the sample holder from being pulled out from the opening , the pull-out prevention part engaged with the sample holder stored in the storing space . a base part attachable to a goniometer in the single-crystal X-ray structure analysis apparatus, the base part formed to have a sample introduction structure into which a sample to be soaked in the porous complex crystal is introduced; and a holding part that can hold the porous complex crystal capable of soaking the sample in a plurality of fine pores formed therein, the holding part formed to the base part , and the applicator comprises: an opening and a storing space in which the sample holder that holds the porous complex crystal can be stored; a seal part provided on a contact surface with the sample holder stored in the storing space ; and a pull-out prevention part that can prevent the sample holder from being pulled out from the opening , the pull-out prevention part engaged with the sample holder stored in the storing space . an opening and a storing space in which the sample holder that holds the porous complex crystal can be stored; a seal part provided on a contact surface with the sample holder stored in the storing space ; and a pull-out prevention part that can prevent the sample holder from being pulled out from the opening , the pull-out prevention part engaged with the sample holder stored in the storing space .
A method for producing a composite material for a heat exchanger cover, comprising the following steps carried out successively: - stacking a plurality of layers of fabric made up of basalt fibres; - compacting the plurality of fabric layers; - arranging the plurality of compacted layers in a mould; - resin transfer moulding a resin in the mould that is configured to withstand temperatures of at least 250°C until the mould is filled; - heating the mould in order to form the composite material; - demoulding the composite material; - post-curing the composite material; said method being characterised in that the step of stacking the plurality of layers of fabric made up of basalt fibres comprises a step of inserting at least one layer of fabric made up of carbon fibres between the layers of fabric made up of basalt fibres. - stacking a plurality of layers of fabric made up of basalt fibres; - compacting the plurality of fabric layers; - arranging the plurality of compacted layers in a mould; - resin transfer moulding a resin in the mould that is configured to withstand temperatures of at least 250°C until the mould is filled; - heating the mould in order to form the composite material; - demoulding the composite material; - post-curing the composite material;
A magnetic field sensor comprising a substrate ; a magnetic sense element formed on the substrate ; and a shield structure formed on the substrate and fully encircling, but laterally spaced apart from, the magnetic sense element , the shield structure being configured to suppress stray magnetic fields along a first axis and a second axis , wherein the first and second axes are parallel to a surface of the substrate and perpendicular to one another, wherein the magnetic sense element is configured to sense a measurement magnetic field along the first axis , and the magnetic field sensor further comprises a magnetic field deflection element formed on the substrate proximate the magnetic sense element , wherein the magnetic field deflection element is configured to redirect an external magnetic field from a third axis , perpendicular to the surface of the substrate , into the first axis to be sensed as the measurement magnetic field by the magnetic sense element , wherein the shield structure additionally encircles and is laterally spaced apart from sidewalls of the magnetic field deflection element , the sidewalls being in planes orthogonal to the substrate. a substrate ; a magnetic sense element formed on the substrate ; and a shield structure formed on the substrate and fully encircling, but laterally spaced apart from, the magnetic sense element , the shield structure being configured to suppress stray magnetic fields along a first axis and a second axis , wherein the first and second axes are parallel to a surface of the substrate and perpendicular to one another, wherein the magnetic sense element is configured to sense a measurement magnetic field along the first axis , and the magnetic field sensor further comprises a magnetic field deflection element formed on the substrate proximate the magnetic sense element , wherein the magnetic field deflection element is configured to redirect an external magnetic field from a third axis , perpendicular to the surface of the substrate , into the first axis to be sensed as the measurement magnetic field by the magnetic sense element , wherein the shield structure additionally encircles and is laterally spaced apart from sidewalls of the magnetic field deflection element , the sidewalls being in planes orthogonal to the substrate.
A tube forming the body of a catheter assembly, the tube comprising: a tubular support framework comprising a proximal end , a distal end , and a longitudinal axis , the support framework comprising: one or more spines extending longitudinally between the proximal end and the distal end; a plurality of ribs disposed along a length of the one or more spines defining a lumen of the support framework extending therethrough; junction points connecting one or more ribs of the plurality of ribs with the one or more spines; and a polymeric cover disposed around at least a portion the support framework; and characterised in that two or more ribs of the plurality of ribs merge into a spine connector , the spine connector having a single junction point with at least one of the one or more spines. one or more spines extending longitudinally between the proximal end and the distal end; a plurality of ribs disposed along a length of the one or more spines defining a lumen of the support framework extending therethrough; junction points connecting one or more ribs of the plurality of ribs with the one or more spines; and a polymeric cover disposed around at least a portion the support framework; and characterised in that two or more ribs of the plurality of ribs merge into a spine connector , the spine connector having a single junction point with at least one of the one or more spines.
An ultrasonic air data system , comprising: a body configured to mount to an aircraft; an acoustic signal shaping feature associated with the body ; a Sound Amplification through Synchronous Accumulation of Radiation "SASAR" acoustic source operatively connected to the acoustic signal shaping feature , the acoustic source configured to emit a directional acoustic signal, wherein the acoustic signal shaping feature is configured to reshape the directional acoustic signal from the acoustic source into an at least partially reshaped signal; and one or more acoustic receivers disposed on or at least partially within the body for receiving the reshaped signal. a body configured to mount to an aircraft; an acoustic signal shaping feature associated with the body ; a Sound Amplification through Synchronous Accumulation of Radiation "SASAR" acoustic source operatively connected to the acoustic signal shaping feature , the acoustic source configured to emit a directional acoustic signal, wherein the acoustic signal shaping feature is configured to reshape the directional acoustic signal from the acoustic source into an at least partially reshaped signal; and one or more acoustic receivers disposed on or at least partially within the body for receiving the reshaped signal.
An appliance for preparing a frozen or semi-frozen aerated edible product of the kind that undergoes at least a partial phase change at a phase-changing temperature during its preparation from a mixture of non-frozen ingredients, the appliance comprising: a cooling and processing chamber defined between chamber walls that comprises at least one ingredients inlet for introducing the ingredients into the chamber, at least one finished product outlet and a dasher for mixing and aerating the mixture during a preparation stage; a cooling utility coupled to and configured for cooling said chamber; and wherein said chamber has a thermal mass such that the mass ratio between the cooling chamber and the edible product is in the range of about 5 to about 40, and such that once cooled by said cooling utility to a duty temperature that is below said phase-changing temperature and induces said phase change, is sufficient to absorb at least 50%, 55%, 60%, 65%, 70%, and at times even at least 75% of the thermal energy needed to cool said mixture and maintain it in a duty temperature during the phase change. a cooling and processing chamber defined between chamber walls that comprises at least one ingredients inlet for introducing the ingredients into the chamber, at least one finished product outlet and a dasher for mixing and aerating the mixture during a preparation stage; a cooling utility coupled to and configured for cooling said chamber; and wherein said chamber has a thermal mass such that the mass ratio between the cooling chamber and the edible product is in the range of about 5 to about 40, and such that once cooled by said cooling utility to a duty temperature that is below said phase-changing temperature and induces said phase change, is sufficient to absorb at least 50%, 55%, 60%, 65%, 70%, and at times even at least 75% of the thermal energy needed to cool said mixture and maintain it in a duty temperature during the phase change.
A controller for a dock leveller comprising a motor, wherein the controller is configured to determine when the dock leveller is approaching a maximally raised position (MRP), by detecting an increase in power consumption of the motor; wherein the controller is configured to determine a first time period (Tup) taken by the dock leveller to move from its resting position (RP) to its maximally raised position (MRP), to thereafter allow the dock leveller to lower for the determined first time period (Tup), to determine a second time period (Tdown) taken by the dock leveller to again move to its maximally raised position (MRP) and to calculate a speed ratio of the dock leveller based on the first (Tup) and second (Tdown) time periods; and wherein the controller is configured to adjust operation time of the dock leveller based on the speed ratio and one or both of the acquired time periods (Tup, Tdown). wherein the controller is configured to determine a first time period (Tup) taken by the dock leveller to move from its resting position (RP) to its maximally raised position (MRP), to thereafter allow the dock leveller to lower for the determined first time period (Tup), to determine a second time period (Tdown) taken by the dock leveller to again move to its maximally raised position (MRP) and to calculate a speed ratio of the dock leveller based on the first (Tup) and second (Tdown) time periods; and wherein the controller is configured to adjust operation time of the dock leveller based on the speed ratio and one or both of the acquired time periods (Tup, Tdown).
A method for synchronously performing an operation on contents, wherein the method comprises: sending, by a terminal, a content synchronization request to a remote entity, wherein the remote entity receives content synchronization requests from one or more terminals, when the remote entity determines that terminals transmitting content synchronization requests belong to one group, the remote entity selects the terminal as the master terminal and the rest as slave terminals; receiving a synchronization instruction information sent by the remote entity, ; the synchronization instruction information being used to instruct the master terminal to send a synchronization instruction to the slave terminals and instruct the slave terminals to synchronously perform an operation according to the synchronization instruction; determining, by the master terminal, contents to be operated in synchronization (S800); sending, by the master terminal, the contents to be operated in synchronization to the slave terminals according to the synchronization instruction information, respectively (S810); and sending, by the master terminal the synchronization instruction to the slave terminals (S820), the synchronization instruction being used for instructing the slave terminals to synchronously perform an operation on contents to be operated in synchronization. sending, by a terminal, a content synchronization request to a remote entity, wherein the remote entity receives content synchronization requests from one or more terminals, when the remote entity determines that terminals transmitting content synchronization requests belong to one group, the remote entity selects the terminal as the master terminal and the rest as slave terminals; receiving a synchronization instruction information sent by the remote entity, ; the synchronization instruction information being used to instruct the master terminal to send a synchronization instruction to the slave terminals and instruct the slave terminals to synchronously perform an operation according to the synchronization instruction; determining, by the master terminal, contents to be operated in synchronization (S800); sending, by the master terminal, the contents to be operated in synchronization to the slave terminals according to the synchronization instruction information, respectively (S810); and sending, by the master terminal the synchronization instruction to the slave terminals (S820), the synchronization instruction being used for instructing the slave terminals to synchronously perform an operation on contents to be operated in synchronization.
A method implemented in an encoder for encoding a video including a plurality of pictures, the method comprising: partitioning , by a processor of the encoder, a picture of the plurality of pictures into a plurality of first level tiles, wherein the plurality of first level tiles are defined by a set of tile columns and a set of tile rows; partitioning , by the processor, a subset of the first level tiles into one or more tile rows and one or more tile columns to obtain a plurality of second level tiles; assigning , by the processor, the first level tiles and the second level tiles into one or more tile groups, wherein all second level tiles created from a single first level tile are assigned to a same tile group such that all tiles in an assigned tile group are constrained to cover a rectangular region of the picture; encoding , by the processor, the first level tiles and the second level tiles into a bitstream; and encoding, by the processor, a flag, for each of the first level tiles, into the bitstream, the flag indicating whether the first level tile is partitioned into second level tiles. partitioning , by a processor of the encoder, a picture of the plurality of pictures into a plurality of first level tiles, wherein the plurality of first level tiles are defined by a set of tile columns and a set of tile rows; partitioning , by the processor, a subset of the first level tiles into one or more tile rows and one or more tile columns to obtain a plurality of second level tiles; assigning , by the processor, the first level tiles and the second level tiles into one or more tile groups, wherein all second level tiles created from a single first level tile are assigned to a same tile group such that all tiles in an assigned tile group are constrained to cover a rectangular region of the picture; encoding , by the processor, the first level tiles and the second level tiles into a bitstream; and encoding, by the processor, a flag, for each of the first level tiles, into the bitstream, the flag indicating whether the first level tile is partitioned into second level tiles.
An irradiation device comprising: a linear lamp that emits invisible light; a reflecting member that is provided along a circumferential direction of the lamp and that includes a reflection surface , which reflects the light of the lamp ; and a projecting section that projects toward an outer circumferential surface of the lamp from the reflection surface and that reflects the light irradiated from the lamp toward the reflection surface , and the projecting section is formed in a V-shape comprising a pair of reflection surfaces which forms an angle that projects toward the outer circumferential surface of the lamp , on a cross section orthogonal to a center axis of the lamp , characterized in that when a diameter of the lamp is represented as D, width W of the projecting section connecting both ends of the projection section with respect to a radial direction is 0.5D or more and 1.5D or less, the both ends of the projection section being in contact with the reflection surface on the cross section, and a surface treatment or a reflection preventing film, which reduces reflectance of the light irradiated from the lamp, is applied to the projecting section . a linear lamp that emits invisible light; a reflecting member that is provided along a circumferential direction of the lamp and that includes a reflection surface , which reflects the light of the lamp ; and a projecting section that projects toward an outer circumferential surface of the lamp from the reflection surface and that reflects the light irradiated from the lamp toward the reflection surface , and the projecting section is formed in a V-shape comprising a pair of reflection surfaces which forms an angle that projects toward the outer circumferential surface of the lamp , on a cross section orthogonal to a center axis of the lamp , characterized in that when a diameter of the lamp is represented as D, width W of the projecting section connecting both ends of the projection section with respect to a radial direction is 0.5D or more and 1.5D or less, the both ends of the projection section being in contact with the reflection surface on the cross section, and a surface treatment or a reflection preventing film, which reduces reflectance of the light irradiated from the lamp, is applied to the projecting section .
A heat exchanger for a vehicle, comprising: a housing having a first opening and a second opening spaced apart from the first opening , wherein the first opening and the second opening are adapted to circulate a first fluid around a plurality of heat exchange elements disposed in the housing ; and at least one inclined wing formed along an inner wall of the housing and at at-least one edge of the first opening that is proximal to the second opening of the housing , to direct the first fluid around the plurality of heat exchange elements , wherein the at least one inclined wing is inclined towards the plurality of heat exchange elements disposed in the housing and in a direction away from the second opening at an angle with respect to the first opening of the housing and wherein the at least one inclined wing is stamped to the first opening of the housing , wherein the housing is formed by a plurality of walls , in which the first opening and the second opening are formed on and wherein the first opening and the second opening are formed on a first wall and a second wall amongst the plurality of walls of the housing respectively, the second opening is formed on the second wall , characterised in that the first opening is formed at a corner connecting the first wall and the second wall of the housing and wherein the at least one inclined wing is formed on more than one edge of the first opening , that are proximal to the second opening formed on the second wall of the housing . a housing having a first opening and a second opening spaced apart from the first opening , wherein the first opening and the second opening are adapted to circulate a first fluid around a plurality of heat exchange elements disposed in the housing ; and at least one inclined wing formed along an inner wall of the housing and at at-least one edge of the first opening that is proximal to the second opening of the housing , to direct the first fluid around the plurality of heat exchange elements , wherein the at least one inclined wing is inclined towards the plurality of heat exchange elements disposed in the housing and in a direction away from the second opening at an angle with respect to the first opening of the housing and wherein the at least one inclined wing is stamped to the first opening of the housing , wherein the housing is formed by a plurality of walls , in which the first opening and the second opening are formed on and wherein the first opening and the second opening are formed on a first wall and a second wall amongst the plurality of walls of the housing respectively, the second opening is formed on the second wall , characterised in that the first opening is formed at a corner connecting the first wall and the second wall of the housing and wherein the at least one inclined wing is formed on more than one edge of the first opening , that are proximal to the second opening formed on the second wall of the housing .
A microelectromechanical systems, MEMS, microphone , comprising: a MEMS microphone element comprising a diaphragm and a backplate disposed in a microphone package ; an application specific integrated circuit, ASIC , disposed in the microphone package comprising a first bias voltage generator (502; 602; 702) and a second bias voltage generator (512; 612; 712), characterised by the first bias voltage generator operatively coupled to the diaphragm of the MEMS microphone element and configured to provide a first bias voltage to the diaphragm of the MEMS microphone element and the second bias voltage generator operatively coupled to the backplate of the MEMS microphone element and configured to provide a second bias voltage to the backplate of the MEMS microphone element, wherein the second bias voltage is of opposite polarity of the first bias voltage; and an amplifier (504; 604; 704) associated with the ASIC operatively coupled to the MEMS microphone element, wherein an input of the amplifier is operatively coupled to at least one of the diaphragm or the backplate via a capacitor (510; 610, 614; 710, 714). a MEMS microphone element comprising a diaphragm and a backplate disposed in a microphone package ; an application specific integrated circuit, ASIC , disposed in the microphone package comprising a first bias voltage generator (502; 602; 702) and a second bias voltage generator (512; 612; 712), characterised by the first bias voltage generator operatively coupled to the diaphragm of the MEMS microphone element and configured to provide a first bias voltage to the diaphragm of the MEMS microphone element and the second bias voltage generator operatively coupled to the backplate of the MEMS microphone element and configured to provide a second bias voltage to the backplate of the MEMS microphone element, wherein the second bias voltage is of opposite polarity of the first bias voltage; and an amplifier (504; 604; 704) associated with the ASIC operatively coupled to the MEMS microphone element, wherein an input of the amplifier is operatively coupled to at least one of the diaphragm or the backplate via a capacitor (510; 610, 614; 710, 714).