mhurhangee/ep-ind-claims huggingface dataset:
A liquid ejection device comprising: a liquid ejection head including a nozzle opening from which liquid is ejected, a supply passage that supplies the liquid contained in a liquid supply source (14; 71; 75) to the liquid ejection head, a liquid supply unit configured to be connectable to the supply passage, and a liquid ejection unit that includes a case accommodating the liquid ejection head, the liquid supply unit comprising: a pressure adjusting valve portion that includes a liquid outlet connectable to an upstream end of the supply passage, a liquid inlet that draws in the liquid from the liquid supply source (14; 71; 75), a pressure chamber connected to the liquid outlet and the liquid inlet, wherein the pressure chamber is at least partially formed by a flexible portion configured to be deformed when pressure of the pressure chamber changes, an urging member configured to urge the flexible portion in a direction in which the flexible portion increases a volume of the pressure chamber, a lever that pivots about a pivot shaft in accordance with a deformation of the flexible portion, and an opening-closing valve configured to allow the liquid to be drawn from the liquid supply source (14; 71; 75) to the pressure chamber through the liquid inlet when the lever pivots, characterised in that the pressure adjusting valve portion of the liquid supply unit is provided so as to remain stationary when the liquid ejection head moves. a liquid outlet connectable to an upstream end of the supply passage, a liquid inlet that draws in the liquid from the liquid supply source (14; 71; 75), a pressure chamber connected to the liquid outlet and the liquid inlet, wherein the pressure chamber is at least partially formed by a flexible portion configured to be deformed when pressure of the pressure chamber changes, an urging member configured to urge the flexible portion in a direction in which the flexible portion increases a volume of the pressure chamber, a lever that pivots about a pivot shaft in accordance with a deformation of the flexible portion, and an opening-closing valve configured to allow the liquid to be drawn from the liquid supply source (14; 71; 75) to the pressure chamber through the liquid inlet when the lever pivots, characterised in that the pressure adjusting valve portion of the liquid supply unit is provided so as to remain stationary when the liquid ejection head moves.
A method used in a wireless communications system that facilitates identifying Rank Indicator, RI, within a Physical Uplink Shared Channel, PUSCH, transmission, comprising: receiving a PUSCH transmission that includes at least one of a RI, a Channel Quality Indicator. CQI, a portion of data, or an acknowledgement, ACK; employing a decoding technique in order to detect the RI, wherein the decoding technique is at least one of a parallel decoding or a hybrid decoding, wherein in parallel decoding RI detection as well as CQI and data decoding are performed in parallel, wherein for CQI decoding blind decoding is carried out assuming different values for RI; and wherein hybrid decoding comprises parallel RI detection and blind CQI decoding as well as subsequent data decoding; and identifying a starting point of the portion of data based upon the detected RI. receiving a PUSCH transmission that includes at least one of a RI, a Channel Quality Indicator. CQI, a portion of data, or an acknowledgement, ACK; employing a decoding technique in order to detect the RI, wherein the decoding technique is at least one of a parallel decoding or a hybrid decoding, wherein in parallel decoding RI detection as well as CQI and data decoding are performed in parallel, wherein for CQI decoding blind decoding is carried out assuming different values for RI; and wherein hybrid decoding comprises parallel RI detection and blind CQI decoding as well as subsequent data decoding; and identifying a starting point of the portion of data based upon the detected RI.
A device for controlling a level of ventilatory assist applied to a patient by a mechanical ventilator, comprising: at least one first detector measuring, during patient's non-assisted breath, an inspiratory volume V no-assist produced by the patient and measuring, during patient's assisted breath, an inspiratory volume V assist produced by both the patient and the mechanical ventilator; a subtractor of volume V no-assist from volume V assist to give an inspiratory volume V vent contributed by the mechanical ventilator; and a sensor for measuring inspiratory assist pressure P vent produced by the mechanical ventilator and for measuring pressure during non-assisted breath; characterized in that the device further comprises: a first calculator of a first relation between pressure P vent and volume V assist; a second calculator of a second relation between pressure P vent and volume V vent; a third calculator, using the first and second relations, of a ratio between pressure P vent at volume V vent and pressure P vent at volume V assist, with volume V vent equal to volume V assist, for a plurality of volumes V vent and V assist; a multiplier of values of P vent by the corresponding calculated ratios to calculate a third relation between a predicted inspiratory pressure P pred and volume V assist; and a controller of the mechanical ventilator configured to use the third relation to control the level of ventilatory assist. at least one first detector measuring, during patient's non-assisted breath, an inspiratory volume V no-assist produced by the patient and measuring, during patient's assisted breath, an inspiratory volume V assist produced by both the patient and the mechanical ventilator; a subtractor of volume V no-assist from volume V assist to give an inspiratory volume V vent contributed by the mechanical ventilator; and a sensor for measuring inspiratory assist pressure P vent produced by the mechanical ventilator and for measuring pressure during non-assisted breath; a first calculator of a first relation between pressure P vent and volume V assist; a second calculator of a second relation between pressure P vent and volume V vent; a third calculator, using the first and second relations, of a ratio between pressure P vent at volume V vent and pressure P vent at volume V assist, with volume V vent equal to volume V assist, for a plurality of volumes V vent and V assist; a multiplier of values of P vent by the corresponding calculated ratios to calculate a third relation between a predicted inspiratory pressure P pred and volume V assist; and a controller of the mechanical ventilator configured to use the third relation to control the level of ventilatory assist.
A system comprising a transponder and a base station, the transponder comprising a portable motion-sensing circuit configured and arranged to be carried by a user and to indicate that motion is sensed in response to detecting whether the user has been moving for a predetermined period of time; and a communication circuit (112, 116, 122, 126) communicatively coupled to the motion-sensing circuit and configured and arranged to operate in an active mode and an inactive mode in which the communication circuit (112, 116, 122, 126) is consuming less power relative to power consumed by the communication circuit (112, 116, 122, 126) in the active mode, and in which wireless access authentication communications with the communication circuit (112, 116, 122, 126) are respectively permitted and inhibited in the active and inactive modes, wherein the communication circuit (112, 116, 122, 126) is configured and arranged to operate in the active mode in response to the motion being sensed at the motion-sensing circuit and characterized in that the communication circuit (112, 116, 122, 126) includes a low-frequency communication circuit and a high-frequency communication circuit, the communication circuit (112, 116, 122, 126) being configured and arranged to enter the active mode by powering the high-frequency communication circuit to send a wake-up signal to activate a circuit in a remote base station (110,410), in response to motion detected at the motion-sensing circuit, communicate wirelessly between the base station (110, 41 0) and a remote transponder (120, 420) by using the low-frequency circuit to detect a response from the base station (110, 410) to the wake-up signal, identify the base station (110, 410) based upon the detected response, and communicate access authentication communication to the base station (11 0,410) based on the identification.
An airless tire (200, 300), comprising: a plurality of spoke rings (110a-c, 210a-c, 310a-c), including a first spoke ring (110a, 210a, 310a) adjacent to a second spoke ring (110b, 210b, 310b), wherein each of the plurality of spoke rings (110a-c, 210a-c, 310a-c) includes an annular outer surface (So), an annular inner surface (S I), and a plurality of spokes (112a-c) extending between the annular outer surfaces (So) and the annular inner surfaces (S I), and wherein a tread layer extends circumferentially around the annular outer surfaces (So) of the plurality of spoke rings (110a-c, 210a-c, 310a-c), characterized in that: the first spoke ring (110a, 210a, 310a) has a first maximum outer diameter and the second spoke ring (110b, 210b, 310b) has a second maximum outer diameter different from the first maximum outer diameter; and the first spoke ring has a first stiffness and the second spoke ring has a second stiffness different from the first stiffness. wherein each of the plurality of spoke rings (110a-c, 210a-c, 310a-c) includes an annular outer surface (So), an annular inner surface (S I), and a plurality of spokes (112a-c) extending between the annular outer surfaces (So) and the annular inner surfaces (S I), and wherein a tread layer extends circumferentially around the annular outer surfaces (So) of the plurality of spoke rings (110a-c, 210a-c, 310a-c), characterized in that: the first spoke ring (110a, 210a, 310a) has a first maximum outer diameter and the second spoke ring (110b, 210b, 310b) has a second maximum outer diameter different from the first maximum outer diameter; and the first spoke ring has a first stiffness and the second spoke ring has a second stiffness different from the first stiffness. the first spoke ring (110a, 210a, 310a) has a first maximum outer diameter and the second spoke ring (110b, 210b, 310b) has a second maximum outer diameter different from the first maximum outer diameter; and the first spoke ring has a first stiffness and the second spoke ring has a second stiffness different from the first stiffness.
An extracorporeal circulation device having a main control unit that is responsible for control of the device and a sub-control unit that is configured by an FPGA (Field-Programmable Gate Array) and takes over processing relating to extracorporeal circulation in place of the main control unit if the main control unit falls into an abnormal state in order to extracorporeally circulate blood of a subject by using a circulation circuit, the extracorporeal circulation device being characterized in that the sub-control unit has monitoring means that monitors a drive signal applied to a motor of a pump for performing the extracorporeal circulation of the blood, determining means that determines whether the main control unit is in a normal state or is in an abnormal state by determining whether or not the drive signal falls within an allowable range for yielding a set amount of fluid sending per unit time during monitoring by the monitoring means, and treatment means that forcibly stops the main control unit and takes over and handles treatment relating to blood circulation in place of the main control unit if it is determined that the main control unit is in an abnormal state by the determining means.
A method for reducing blocking artifacts at the boundary between adjacent blocks reconstructed from a frame of compressed video information that includes a prediction stage parameter with respect to at least one of the blocks, the method comprising: reconstructing the one block based on the prediction stage parameter; computing a residual error attribute from the reconstructed block; computing a filter strength value based on combining a baseline filter strength (f) and at least one incremental value (δ1- δ8), the at least one incremental value selected from a plurality of preset values based at least on one of the prediction stage parameter or the residual error attribute associated with the one block, the baseline filter strength specified at the frame level in the encoded bitstream and the plurality of preset values are determined at the frame level; and filtering the boundary adjacent to the one block using the selected filter strength value. reconstructing the one block based on the prediction stage parameter; computing a residual error attribute from the reconstructed block; computing a filter strength value based on combining a baseline filter strength (f) and at least one incremental value (δ1- δ8), the at least one incremental value selected from a plurality of preset values based at least on one of the prediction stage parameter or the residual error attribute associated with the one block, the baseline filter strength specified at the frame level in the encoded bitstream and the plurality of preset values are determined at the frame level; and filtering the boundary adjacent to the one block using the selected filter strength value.
A lyophilized or spray-dried composition comprising at least one benzodiazepine according to formula with W is H; X is CH 2; n is 1; Y is CH 2; m is 1; Z is O; R 1 is CH 3, CH 2 CH 3, CH 2 CH 2 CH 3, CH(CH 3) 2 or CH 2 CH(CH 3) 2; R 2 is 2-fluorophenyl, 2-chlorophenyl or 2-pyridyl; R 3 is CI or Br; R 4, R 5 and R 8 form the group-CR 8 =U-V= wherein R 8 is hydrogen, C 1-4 alkyl or C 1-3 hydroxyalkyl, U is N or CR 9 wherein R 9 is H, C 1-4 alkyl, C 1-3 hydroxyalkyl or C 1-4 alkoxy, V is N or CH and p is zero or a pharmaceutically acceptable salt thereof, wherein the composition comprises at least one pharmaceutically acceptable hygroscopic excipient, wherein the hygroscopic excipient is a carbohydrate selected from the group consisting of disaccharides and dextran and optionally the composition is at least in part amorphous. W is H; X is CH 2; n is 1; Y is CH 2; m is 1; Z is O; R 1 is CH 3, CH 2 CH 3, CH 2 CH 2 CH 3, CH(CH 3) 2 or CH 2 CH(CH 3) 2; R 2 is 2-fluorophenyl, 2-chlorophenyl or 2-pyridyl; R 3 is CI or Br; R 4, R 5 and R 8 form the group-CR 8 =U-V= wherein R 8 is hydrogen, C 1-4 alkyl or C 1-3 hydroxyalkyl, U is N or CR 9 wherein R 9 is H, C 1-4 alkyl, C 1-3 hydroxyalkyl or C 1-4 alkoxy, V is N or CH and p is zero comprises at least one pharmaceutically acceptable hygroscopic excipient, wherein the hygroscopic excipient is a carbohydrate selected from the group consisting of disaccharides and dextran and optionally the composition is at least in part amorphous.
A random access method, comprising: receiving, by a network device, identification information, which is different from a connection establishment cause information and which is sent by a user equipment, UE, according to an access status of the UE, the access status being one of different access statuses in different application scenarios, the application scenarios comprising scenarios in which the UE initially accesses a network, a connection is interrupted and the UE accesses the network again, the UE has accessed the network but there is no uplink channel resource and the UE accesses the network again to apply for a resource, or a cell handover is performed or a base station is reselected; allocating, by the network device, a first access network identifier to the UE according to the identification information; sending, by the network device, the first access network identifier to the UE; and allocating, by the network device, a resource to the UE according to the first access network identifier. receiving, by a network device, identification information, which is different from a connection establishment cause information and which is sent by a user equipment, UE, according to an access status of the UE, the access status being one of different access statuses in different application scenarios, the application scenarios comprising scenarios in which the UE initially accesses a network, a connection is interrupted and the UE accesses the network again, the UE has accessed the network but there is no uplink channel resource and the UE accesses the network again to apply for a resource, or a cell handover is performed or a base station is reselected; allocating, by the network device, a first access network identifier to the UE according to the identification information; sending, by the network device, the first access network identifier to the UE; and allocating, by the network device, a resource to the UE according to the first access network identifier.
A method of bonding a first component comprising titanium to a second metallic component containing nickel, the method characterised by: interposing a plurality of metallic layers (14, 16, 18) between the first component and the second component; and heating the plurality of metallic layers so as to form a bond between the first and second components by brazing, wherein the heating comprises heating the layers to a temperature at which only a portion of the metallic layers melts such that at least a remaining portion of the metallic layers remains solid during brazing, thereby forming a two-phase liquid. interposing a plurality of metallic layers (14, 16, 18) between the first component and the second component; and heating the plurality of metallic layers so as to form a bond between the first and second components by brazing, wherein the heating comprises heating the layers to a temperature at which only a portion of the metallic layers melts such that at least a remaining portion of the metallic layers remains solid during brazing, thereby forming a two-phase liquid.
Surgical system for cutting an anatomical structure (F, T) of a patient according to at least one target plane defined in a coordinate system of the anatomical structure, comprising: (i) a robotic device comprising: - an end effector, - an actuation unit having at least three motorized degrees of freedom, configured for adjusting a position and orientation of the end effector relative to each target plane, - a passive planar mechanism connecting a terminal part of the actuation unit to the end effector, the passive planar mechanism being configured to constrain movement of the end effector only inside a plane, the passive planar mechanism allowing a user to freely move the end effector inside said plane according to at least two degrees of freedom; (ii) a tracker rigidly attached to the end effector, (iii) a tracking unit configured to determine in real time the pose of the end effector with respect to the coordinate system of the anatomical structure, (iv) a control unit configured to determine the pose of the end effector with respect to the target plane and to control the actuation unit so as to bring the cutting plane into alignment with the target plane. (i) a robotic device comprising: - an end effector, - an actuation unit having at least three motorized degrees of freedom, configured for adjusting a position and orientation of the end effector relative to each target plane, - a passive planar mechanism connecting a terminal part of the actuation unit to the end effector, the passive planar mechanism being configured to constrain movement of the end effector only inside a plane, the passive planar mechanism allowing a user to freely move the end effector inside said plane according to at least two degrees of freedom; - an end effector, - an actuation unit having at least three motorized degrees of freedom, configured for adjusting a position and orientation of the end effector relative to each target plane, - a passive planar mechanism connecting a terminal part of the actuation unit to the end effector, the passive planar mechanism being configured to constrain movement of the end effector only inside a plane, the passive planar mechanism allowing a user to freely move the end effector inside said plane according to at least two degrees of freedom; (ii) a tracker rigidly attached to the end effector, (iii) a tracking unit configured to determine in real time the pose of the end effector with respect to the coordinate system of the anatomical structure, (iv) a control unit configured to determine the pose of the end effector with respect to the target plane and to control the actuation unit so as to bring the cutting plane into alignment with the target plane.
A tissue graft fixation device comprising: a body having a first end portion, a second end portion, and an intermediate portion extending between the first and second end portions (305, 320), the body configured for passage through a bone tunnel when oriented generally longitudinally with respect to the bone tunnel, the intermediate portion comprising two tabs (340, 350) extending transverse to the intermediate portion and the intermediate portion defining at least one hole (304, 306) located between the two tabs (340, 350), the two tabs (340, 350) configured to at least partially fit through an opening and into the bone tunnel to limit translation of the device on a cortical bone surface, and characterised in that each of the two tabs (340, 350) comprising two axially extending and tapered keels (342, 344), each of the keels (342, 344) comprising a cutting edge (342a, 344a, 352a, 354a) configured to drive into a portion of the cortical bone surface to limit rotation of the device. a body having a first end portion, a second end portion, and an intermediate portion extending between the first and second end portions (305, 320), the body configured for passage through a bone tunnel when oriented generally longitudinally with respect to the bone tunnel, the intermediate portion comprising two tabs (340, 350) extending transverse to the intermediate portion and the intermediate portion defining at least one hole (304, 306) located between the two tabs (340, 350), the two tabs (340, 350) configured to at least partially fit through an opening and into the bone tunnel to limit translation of the device on a cortical bone surface, and characterised in that each of the two tabs (340, 350) comprising two axially extending and tapered keels (342, 344), each of the keels (342, 344) comprising a cutting edge (342a, 344a, 352a, 354a) configured to drive into a portion of the cortical bone surface to limit rotation of the device.