mhurhangee/patent-ind-claim-en huggingface dataset:
A spacer device for use with a medicinal fluid canister , the device comprising: a) a flow chamber ; b) a mouthpiece in fluid communication with the flow chamber ; and c) a spirometer comprising: a fluid chamber having an upper and a lower portion along an elongated central axis, the upper portion of the fluid chamber being in fluid communication with the flow chamber via a fluid pathway ; a float slidably disposed within the fluid chamber; and an entrainment port disposed within a wall of the lower portion of the fluid chamber; wherein drawing fluid through the mouthpiece draws fluid through the flow chamber and the entrainment port , thereby generating a pressure difference within the fluid chamber causing the float to move toward the upper portion of the fluid chamber, and the device is calibrated such that the float moves toward the upper portion of the fluid chamber at a flow rate of between 30-35 liters per minute during operation; the device being characterized in that the flow chamber comprises an opening for receiving a mouthpiece of an inhaler device ; and wherein the opening for receiving the mouthpiece of the inhaler device is arranged opposite the mouthpiece of the spacer device . a) a flow chamber ; b) a mouthpiece in fluid communication with the flow chamber ; and c) a spirometer comprising: a fluid chamber having an upper and a lower portion along an elongated central axis, the upper portion of the fluid chamber being in fluid communication with the flow chamber via a fluid pathway ; a float slidably disposed within the fluid chamber; and an entrainment port disposed within a wall of the lower portion of the fluid chamber; a fluid chamber having an upper and a lower portion along an elongated central axis, the upper portion of the fluid chamber being in fluid communication with the flow chamber via a fluid pathway ; a float slidably disposed within the fluid chamber; and an entrainment port disposed within a wall of the lower portion of the fluid chamber; drawing fluid through the mouthpiece draws fluid through the flow chamber and the entrainment port , thereby generating a pressure difference within the fluid chamber causing the float to move toward the upper portion of the fluid chamber, and the device is calibrated such that the float moves toward the upper portion of the fluid chamber at a flow rate of between 30-35 liters per minute during operation; the device being characterized in that the flow chamber comprises an opening for receiving a mouthpiece of an inhaler device ; and wherein the opening for receiving the mouthpiece of the inhaler device is arranged opposite the mouthpiece of the spacer device .
A spinal fixation device, comprising: a cage defining a gap; a middle plate detachably coupled to the cage ; and a plurality of deployment plates each rotatably hinge coupled to the middle plate at one side end of each of the plurality of deployment plates , characterized in that a height of the middle plate is greater than a height of the cage and the hinge couplings of the deployment plates extend above and below the cage , respectively. a cage defining a gap; a middle plate detachably coupled to the cage ; and a plurality of deployment plates each rotatably hinge coupled to the middle plate at one side end of each of the plurality of deployment plates , characterized in that a height of the middle plate is greater than a height of the cage and the hinge couplings of the deployment plates extend above and below the cage , respectively.
KE penetrator for a projectile having a sabot and a fin assembly , wherein the KE penetrator is solid and split in his length, so that the KE penetrator is split into a base part and an attachment part which are connected via a connection in a form- and/or force-fitting manner, wherein the base part and the attachment part each have an interface , wherein the attachment part is a penetrator tip that can be selected out of a plurality of different penetrator tips of different length for forming the KE penetrator , and wherein the base part forms a shortened base penetrator, wherein the base penetrator and the penetrator tip are modules that form the KE penetrator by attaching one of the penetrator tips , characterized in that the connection is embodied as a bayonet connection.
A compound represented by Formula (IA)': wherein A is S or O; R 1 a is substituted or unsubstituted alkyloxy, or substituted or unsubstituted non-aromatic carbocyclyloxy; R 2 a to R 2 d are each independently a hydrogen atom, halogen, hydroxy, cyano, substituted or unsubstituted C1-C6 alkyl, or substituted or unsubstituted C1-C6 alkyloxy; R 3 is each independently halogen, hydroxy, cyano, substituted or unsubstituted C1-C6 alkyl, or substituted or unsubstituted C1-C6 alkyloxy; two R 3 s attached to different ring-constituting atoms may be taken together to form a bond or a substituted or unsubstituted (C1-C3) bridge wherein one of carbon atoms constituting the (C1-C3) bridge may be replaced with an oxygen atom or a nitrogen atom; Ring B is a non-aromatic carbocycle or a non-aromatic heterocycle; r is an integer of 0 to 4; R 4 is a group represented by: provided that the following compound (i) is excluded: (i) a compound represented by Formula (IA)', wherein A is S; R 1 a or R 1 b is a group represented by: ; R 1 d and R 1 e are hydrogen atoms; R 2 a to R 2 c are hydrogen atoms; R 2 d is a hydrogen atom, hydroxy, or halogen; a group represented by: is and R 4 is -CH 2 -R 6 (wherein R 6 is pyrimidyloxy substituted with only one methyl), or a pharmaceutically acceptable salt thereof. A is S or O; R 1 a is substituted or unsubstituted alkyloxy, or substituted or unsubstituted non-aromatic carbocyclyloxy; R 2 a to R 2 d are each independently a hydrogen atom, halogen, hydroxy, cyano, substituted or unsubstituted C1-C6 alkyl, or substituted or unsubstituted C1-C6 alkyloxy; R 3 is each independently halogen, hydroxy, cyano, substituted or unsubstituted C1-C6 alkyl, or substituted or unsubstituted C1-C6 alkyloxy; two R 3 s attached to different ring-constituting atoms may be taken together to form a bond or a substituted or unsubstituted (C1-C3) bridge wherein one of carbon atoms constituting the (C1-C3) bridge may be replaced with an oxygen atom or a nitrogen atom; Ring B is a non-aromatic carbocycle or a non-aromatic heterocycle; r is an integer of 0 to 4; R 4 is a group represented by: (i) a compound represented by Formula (IA)', wherein A is S; R 1 a or R 1 b is a group represented by: ; R 1 d and R 1 e are hydrogen atoms; R 2 a to R 2 c are hydrogen atoms; R 2 d is a hydrogen atom, hydroxy, or halogen; a group represented by: is and R 4 is -CH 2 -R 6 (wherein R 6 is pyrimidyloxy substituted with only one methyl), or a pharmaceutically acceptable salt thereof. ; R 1 d and R 1 e are hydrogen atoms; R 2 a to R 2 c are hydrogen atoms; R 2 d is a hydrogen atom, hydroxy, or halogen; a group represented by: is and R 4 is -CH 2 -R 6 (wherein R 6 is pyrimidyloxy substituted with only one methyl), or a pharmaceutically acceptable salt thereof.
A light sheet microscope , comprising: - an illumination optical system for generating a light sheet in an intermediate image space , - a transport optical system , which is telecentric on both sides, for imaging the light sheet generated in the intermediate image space into a sample and for imaging a region of the sample illuminated by the light sheet as an intermediate image into the intermediate image space , and - a detection optical system for imaging the intermediate image generated in the intermediate image space onto a detector , - the optical axes (O 1 , O 2 , O 3 ) of the illumination optical system , the transport optical system and the detection optical system intersecting one another in the intermediate image space , and - the transport optical system being designed to position the light sheet in the sample obliquely to the optical axis (O 2 ) of the transport optical system , - characterized by a scanning element which is arranged in the transport optical system at the location of an actual pupil image, and through which the light sheet can be moved in the sample transversely to the optical axis (O 2 ) of the transport optical system to enable a lateral scanning of the sample with the light sheet for volume imaging. - an illumination optical system for generating a light sheet in an intermediate image space , - a transport optical system , which is telecentric on both sides, for imaging the light sheet generated in the intermediate image space into a sample and for imaging a region of the sample illuminated by the light sheet as an intermediate image into the intermediate image space , and - a detection optical system for imaging the intermediate image generated in the intermediate image space onto a detector , - the optical axes (O 1 , O 2 , O 3 ) of the illumination optical system , the transport optical system and the detection optical system intersecting one another in the intermediate image space , and - the transport optical system being designed to position the light sheet in the sample obliquely to the optical axis (O 2 ) of the transport optical system , - characterized by a scanning element which is arranged in the transport optical system at the location of an actual pupil image, and through which the light sheet can be moved in the sample transversely to the optical axis (O 2 ) of the transport optical system to enable a lateral scanning of the sample with the light sheet for volume imaging.
A route processing method, and the method comprises: receiving, by a first provider edge, PE, device, a first virtual private network, VPN, route sent by a second PE device, wherein the first VPN route comprises a second internet protocol version 6 segment routing-based virtual private network segment identifier, SRv6 VPN SID, and a third SRv6 VPN SID, wherein a second customer edge, CE, device is multi-homed to the first PE device and the second PE device, the first PE device is configured with a first SRv6 VPN SID used to identify a VPN to which the second CE device belongs or an outgoing interface through which the first PE is connected to the second CE device, the second PE device is configured with the second SRv6 VPN SID and the third SRv6 VPN SID, both the second SRv6 VPN SID and the third SRv6 VPN SID are used to identify the VPN to which the second CE device belongs or an outgoing interface through which the second PE device is connected to the second CE device, the second SRv6 VPN SID is the same as the first SRv6 VPN SID; and establishing, by the first PE device, a second path from the first PE device to the second PE device based on the third SRv6 VPN SID, wherein when a first path on which the first PE device is directly connected to the second CE device is faulty, the second path is used by the first PE device to forward a packet to the second CE device. receiving, by a first provider edge, PE, device, a first virtual private network, VPN, route sent by a second PE device, wherein the first VPN route comprises a second internet protocol version 6 segment routing-based virtual private network segment identifier, SRv6 VPN SID, and a third SRv6 VPN SID, wherein a second customer edge, CE, device is multi-homed to the first PE device and the second PE device, the first PE device is configured with a first SRv6 VPN SID used to identify a VPN to which the second CE device belongs or an outgoing interface through which the first PE is connected to the second CE device, the second PE device is configured with the second SRv6 VPN SID and the third SRv6 VPN SID, both the second SRv6 VPN SID and the third SRv6 VPN SID are used to identify the VPN to which the second CE device belongs or an outgoing interface through which the second PE device is connected to the second CE device, the second SRv6 VPN SID is the same as the first SRv6 VPN SID; and establishing, by the first PE device, a second path from the first PE device to the second PE device based on the third SRv6 VPN SID, wherein when a first path on which the first PE device is directly connected to the second CE device is faulty, the second path is used by the first PE device to forward a packet to the second CE device.
An analytic device comprising: a device housing ; a circuit board within the device housing ; a processing device surface mounted to the circuit board ; a surface mountable heating block surface mounted to the circuit board , the surface mountable heating block defining a recess configured to receive an assay tube , and a first opening and a second opening (310a, 3 10b, 3 10c) through the surface mountable heating block ; a surface mountable resistive heater surface mounted to the circuit board , the surface mountable resistive heater being in thermal contact with the surface mountable heating block and configured to heat the heating block , under the control of the processing device ; a fan positioned to blow air onto the surface mountable heating block to cool the surface mountable heating block , under the control of the processing device ; a light source positioned to expose contents of the assay tube to excitation light through the first opening , under the control of the processing device ; and a dock on the housing configured to support a camera enabled mobile electronic device , wherein at least one of the dock and the housing define a passage through the dock and the housing ; wherein, when the camera enabled mobile electronic device is placed in the dock , a camera on the camera enabled mobile electronic device is positioned to allow image capture of at least a portion of the assay tube , through the passage in the second opening through the surface mountable heating block , by a sensor in the camera enabled mobile electronic device . a device housing ; a circuit board within the device housing ; a processing device surface mounted to the circuit board ; a surface mountable heating block surface mounted to the circuit board , the surface mountable heating block defining a recess configured to receive an assay tube , and a first opening and a second opening (310a, 3 10b, 3 10c) through the surface mountable heating block ; a surface mountable resistive heater surface mounted to the circuit board , the surface mountable resistive heater being in thermal contact with the surface mountable heating block and configured to heat the heating block , under the control of the processing device ; a fan positioned to blow air onto the surface mountable heating block to cool the surface mountable heating block , under the control of the processing device ; a light source positioned to expose contents of the assay tube to excitation light through the first opening , under the control of the processing device ; and a dock on the housing configured to support a camera enabled mobile electronic device , wherein at least one of the dock and the housing define a passage through the dock and the housing ; wherein, when the camera enabled mobile electronic device is placed in the dock , a camera on the camera enabled mobile electronic device is positioned to allow image capture of at least a portion of the assay tube , through the passage in the second opening through the surface mountable heating block , by a sensor in the camera enabled mobile electronic device .
A temperature exposure detection system comprising: a plurality of nonvolatile memory cells ; read circuitry for reading the plurality of nonvolatile memory cells ; characterized in that the system further comprises determination circuity that is configured to determine a data retention error rate of the plurality of nonvolatile memory cells based on a read of the plurality of nonvolatile memory cells and is configured to determine temperature exposure of the system based on the determined data retention error rate of at least some of the plurality of nonvolatile memory cells . a plurality of nonvolatile memory cells ; read circuitry for reading the plurality of nonvolatile memory cells ; characterized in that the system further comprises determination circuity that is configured to determine a data retention error rate of the plurality of nonvolatile memory cells based on a read of the plurality of nonvolatile memory cells and is configured to determine temperature exposure of the system based on the determined data retention error rate of at least some of the plurality of nonvolatile memory cells .
Aircraft seat device, with a backrest unit comprising a head region with at least one sandwich unit which has at least one support element and has towards a rear side of the backrest unit at least one rigid-foam element that is arranged downstream of the carrier element and is realised as an impact damping element, characterised in that the backrest unit comprises a functional component and/or the sandwich unit comprises an insert component , wherein the rigid-foam element has at least one recess , wherein each recess is configured for receiving such a functional component or such an insert component . with a backrest unit comprising a head region with at least one sandwich unit which has at least one support element and has towards a rear side of the backrest unit at least one rigid-foam element that is arranged downstream of the carrier element and is realised as an impact damping element, characterised in that the backrest unit comprises a functional component and/or the sandwich unit comprises an insert component , wherein the rigid-foam element has at least one recess , wherein each recess is configured for receiving such a functional component or such an insert component .
A thermoplastic resin composition comprising: 100 parts by weight of a thermoplastic resin comprising 35 wt% to 55 wt% of a polycarbonate resin, 3 wt% to 9 wt% of a first rubber-modified aromatic vinyl graft copolymer, 7 wt% to 13 wt% of a second rubber-modified aromatic vinyl graft copolymer, and 30 wt% to 50 wt% of an aromatic vinyl copolymer resin; 6 to 13 parts by weight of a halogen compound; and 8 to 17 parts by weight of a phosphoric ester compound, wherein the first rubber-modified aromatic vinyl graft copolymer is a quaternary graft copolymer obtained by graft copolymerization of an alkyl (meth)acrylate, an aromatic vinyl monomer and a copolymerizable monomer to a rubber polymer, the second rubber-modified aromatic vinyl graft copolymer is a ternary graft copolymer obtained by graft copolymerization of an aromatic vinyl monomer and a copolymerizable monomer to a rubber polymer, and the first rubber-modified aromatic vinyl graft copolymer and the second rubber-modified aromatic vinyl graft copolymer are present in a weight ratio of 1:1 to 1:4. 100 parts by weight of a thermoplastic resin comprising 35 wt% to 55 wt% of a polycarbonate resin, 3 wt% to 9 wt% of a first rubber-modified aromatic vinyl graft copolymer, 7 wt% to 13 wt% of a second rubber-modified aromatic vinyl graft copolymer, and 30 wt% to 50 wt% of an aromatic vinyl copolymer resin; 6 to 13 parts by weight of a halogen compound; and 8 to 17 parts by weight of a phosphoric ester compound, wherein the first rubber-modified aromatic vinyl graft copolymer is a quaternary graft copolymer obtained by graft copolymerization of an alkyl (meth)acrylate, an aromatic vinyl monomer and a copolymerizable monomer to a rubber polymer, the second rubber-modified aromatic vinyl graft copolymer is a ternary graft copolymer obtained by graft copolymerization of an aromatic vinyl monomer and a copolymerizable monomer to a rubber polymer, and the first rubber-modified aromatic vinyl graft copolymer and the second rubber-modified aromatic vinyl graft copolymer are present in a weight ratio of 1:1 to 1:4.
A dual-wall component configured for use in a high temperature environment, the component comprising; an outer wall and an inner wall defining a channel therebetween, the inner wall , in use, exposed to the high temperature, a join of the inner wall to the outer wall , a primary inlet hole extending through the outer wall, an array of effusion holes extending through the inner wall and positioned with their entire inlet in direct line of sight of the primary inlet hole, the primary inlet hole sized with respect to the array of effusion holes such that it has a flow area which causes locally negligible flow restriction; characterised in that the primary inlet hole and array of effusion holes is located just upstream, with respect to the direction of flow of coolant in the channel, of a join of the inner wall to the outer wall .
A liquid heating device for use on an induction hob , comprising: a vessel to accept, contain, heat and dispense water , the vessel made from a non-ferromagnetic material; a ferromagnetic heating plate arranged to be located inside the vessel adjacent to the base of the vessel, wherein the ferromagnetic heating plate is arranged to be movable vertically in a substantially perpendicular direction away from the base of the vessel and return; and an arrangement to lift the ferromagnetic heating plate comprising a thermally sensitive actuator, wherein the ferromagnetic heating plate is mechanically coupled to the thermally sensitive actuator; the thermally sensitive actuator comprising: a means to store energy ; a steam chamber fluidly connected to the vessel; a releasable latching mechanism for the actuator which incorporates a thermally sensitive device set to operate at a predetermined temperature when influenced by the proximity of steam entering the steam chamber from boiling water in the vessel; and a push-button or switch to facilitate a manual intervention of the actuator's operation and permitting a user to set or reset the actuator's position; characterised in that the latching mechanism can be manually overridden or released by physically pressing down on the push-button or switch whereby the latching mechanism is released by moving or deflecting part of that mechanism. a vessel to accept, contain, heat and dispense water , the vessel made from a non-ferromagnetic material; a ferromagnetic heating plate arranged to be located inside the vessel adjacent to the base of the vessel, wherein the ferromagnetic heating plate is arranged to be movable vertically in a substantially perpendicular direction away from the base of the vessel and return; and an arrangement to lift the ferromagnetic heating plate comprising a thermally sensitive actuator, wherein the ferromagnetic heating plate is mechanically coupled to the thermally sensitive actuator; the thermally sensitive actuator comprising: a means to store energy ; a steam chamber fluidly connected to the vessel; a releasable latching mechanism for the actuator which incorporates a thermally sensitive device set to operate at a predetermined temperature when influenced by the proximity of steam entering the steam chamber from boiling water in the vessel; and a push-button or switch to facilitate a manual intervention of the actuator's operation and permitting a user to set or reset the actuator's position; a means to store energy ; a steam chamber fluidly connected to the vessel; a releasable latching mechanism for the actuator which incorporates a thermally sensitive device set to operate at a predetermined temperature when influenced by the proximity of steam entering the steam chamber from boiling water in the vessel; and a push-button or switch to facilitate a manual intervention of the actuator's operation and permitting a user to set or reset the actuator's position;