mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a wireless user device, the method comprising: receiving a first signal from a first unsynchronized or loosely synchronized transmitter of a first network; receiving a second signal from a second unsynchronized or loosely synchronized transmitter of a second network that is different from the first network; receiving a signal from at least one synchronized transmitter which comprises at least one positioning beacon of a synchronized terrestrial beacon network; receiving, at the wireless user device, timing-error data corresponding to a lack of synchronization between the first unsynchronized or loosely synchronized transmitter of the first network and the second unsynchronized or loosely synchronized transmitter of the second network that is different from the first network, from a position network center comprising at least one server; and determining a position location of the wireless user device, using the timing-error data and using the second signal from the second unsynchronized or loosely synchronized transmitter of the second network that is different from the first network and using the signal from the at least one synchronized transmitter. receiving a first signal from a first unsynchronized or loosely synchronized transmitter of a first network; receiving a second signal from a second unsynchronized or loosely synchronized transmitter of a second network that is different from the first network; receiving a signal from at least one synchronized transmitter which comprises at least one positioning beacon of a synchronized terrestrial beacon network; receiving, at the wireless user device, timing-error data corresponding to a lack of synchronization between the first unsynchronized or loosely synchronized transmitter of the first network and the second unsynchronized or loosely synchronized transmitter of the second network that is different from the first network, from a position network center comprising at least one server; and determining a position location of the wireless user device, using the timing-error data and using the second signal from the second unsynchronized or loosely synchronized transmitter of the second network that is different from the first network and using the signal from the at least one synchronized transmitter.
A respiratory therapy assembly including a respiratory therapy device of the kind having a mechanism (10, 11) through which the patient exhales arranged to produce a variable oscillating resistance to breathing through the device, characterised in that the assembly includes a variable restrictor in an inhalation path of the assembly, wherein the variable restrictor includes a slider movable along its length relative to the inhalation path to vary the obstruction to flow along the inhalation path provided by the slider.
A catheter-based system for the targeted delivery of ultrasound-activated gas-scavenging emulsions, comprising: a catheter being sized for insertion into a target vascular lumen and comprising at least one ultrasound transducer at least one port distal to the transducer for exit of an ultrasound-activated emulsion into the vascular lumen, a pump for introducing the emulsion into the catheter, and at least one sensor located in the vascular lumen to detect a level of dissolved oxygen, wherein the sensor may be located proximal or distal to an emulsion exit port. a catheter being sized for insertion into a target vascular lumen and comprising at least one ultrasound transducer at least one port distal to the transducer for exit of an ultrasound-activated emulsion into the vascular lumen, a pump for introducing the emulsion into the catheter, and at least one sensor located in the vascular lumen to detect a level of dissolved oxygen, wherein the sensor may be located proximal or distal to an emulsion exit port.
A viewing control device for a vehicle, comprising: a changing portion that, interlockingly with turning of a vehicle, changes a viewing range of a periphery of the vehicle with respect to a vehicle occupant; an estimating section that estimates an offset angle (θ1) between a vehicle traveling direction and a road direction from a vehicle traveling state before establishment of a condition for starting changing of the viewing range by the changing portion; and a correcting section that, on the basis of the offset angle (θ1) that is estimated by the estimating section, corrects an amount of change (θ2±θ1) of the viewing range by the changing portion that changes the viewing range interlockingly with turning, characterized in that the estimating section estimates the offset angle (θ1) between the vehicle traveling direction and a traffic lane, on which the vehicle travels, that serves as the road direction. a changing portion that, interlockingly with turning of a vehicle, changes a viewing range of a periphery of the vehicle with respect to a vehicle occupant; an estimating section that estimates an offset angle (θ1) between a vehicle traveling direction and a road direction from a vehicle traveling state before establishment of a condition for starting changing of the viewing range by the changing portion; and a correcting section that, on the basis of the offset angle (θ1) that is estimated by the estimating section, corrects an amount of change (θ2±θ1) of the viewing range by the changing portion that changes the viewing range interlockingly with turning, characterized in that the estimating section estimates the offset angle (θ1) between the vehicle traveling direction and a traffic lane, on which the vehicle travels, that serves as the road direction.
A V-to-I converter system for converting an input voltage (V ref-n) to an output current I ref), the V-to-I converter comprising: a V-to-I conversion unit configured to convert the input voltage to a first current (I 1), wherein said V-to-I conversion unit comprises at least one current to charge converter (710A, 710B), wherein said at least one current to charge converter comprises a first capacitor; and a current steering stage configured to: for a first portion of a clock cycle, steer the first current to an output of the V-to-I converter system such that the output current comprises the first current during the first portion of the clock cycle; and for at least part of the remainder of the clock cycle, steer the first current to the V-to-I conversion unit such that the first current is a first input current (I loop1) to the V-to-I conversion unit during the at least part of the remainder of the clock cycle such that the first current is directly used as a current source for charging the first capacitor of the at least one current to charge converter at times when it is not being used for the output current. a V-to-I conversion unit configured to convert the input voltage to a first current (I 1), wherein said V-to-I conversion unit comprises at least one current to charge converter (710A, 710B), wherein said at least one current to charge converter comprises a first capacitor; and a current steering stage configured to: for a first portion of a clock cycle, steer the first current to an output of the V-to-I converter system such that the output current comprises the first current during the first portion of the clock cycle; and for at least part of the remainder of the clock cycle, steer the first current to the V-to-I conversion unit such that the first current is a first input current (I loop1) to the V-to-I conversion unit during the at least part of the remainder of the clock cycle such that the first current is directly used as a current source for charging the first capacitor of the at least one current to charge converter at times when it is not being used for the output current. for a first portion of a clock cycle, steer the first current to an output of the V-to-I converter system such that the output current comprises the first current during the first portion of the clock cycle; and for at least part of the remainder of the clock cycle, steer the first current to the V-to-I conversion unit such that the first current is a first input current (I loop1) to the V-to-I conversion unit during the at least part of the remainder of the clock cycle such that the first current is directly used as a current source for charging the first capacitor of the at least one current to charge converter at times when it is not being used for the output current.
A fire suppression sprinkler, comprising: a housing that establishes a flow path for discharging fire suppression fluid; a water seat that is configured to block the flow path; and a polymer seal supported within the housing and engaging the water seat for sealing an interface between the flow path and the water seat; characterised by further comprising: a spring member that biases the polymer seal into engagement with the water seat. a housing that establishes a flow path for discharging fire suppression fluid; a water seat that is configured to block the flow path; and a polymer seal supported within the housing and engaging the water seat for sealing an interface between the flow path and the water seat; characterised by further comprising: a spring member that biases the polymer seal into engagement with the water seat.
A transport method for high-quality fresh milk under transport- and environment-critical transport conditions, comprising • storing the high-quality fresh milk • by filling a container that has an undivided volume of several cubic meters, • at a fresh milk temperature that is lowered with respect to an ambient temperature, • with a headspace (10.1) in the container to which a gaseous fluid (F*) is applied; • transporting the high-quality fresh milk with a transport means that is designed as an earthbound transport means and/or as a boat; • emptying the high-quality fresh milk out of the container; wherein the transport method comprises the following steps: filling the container with the high-quality fresh milk under sterile conditions and within a storage time (Δt) including a period of time between the filling and the emptying of the container, detecting an angle of inclination (+/-w) that is formed between a free surface of the high-quality fresh milk formed towards the headspace (10.1) and a reference system pertaining to the container; detecting a pressure (p) in the headspace (10.1); increasing the pressure (p) as a function of and in proportion to the value of the angle of inclination (+/-w) by supplying a gaseous, sterile fluid into the headspace (10.1) under sterile conditions, and emptying the high-quality fresh milk out of the container under sterile conditions. • storing the high-quality fresh milk • by filling a container that has an undivided volume of several cubic meters, • at a fresh milk temperature that is lowered with respect to an ambient temperature, • with a headspace (10.1) in the container to which a gaseous fluid (F*) is applied; • by filling a container that has an undivided volume of several cubic meters, • at a fresh milk temperature that is lowered with respect to an ambient temperature, • with a headspace (10.1) in the container to which a gaseous fluid (F*) is applied; • transporting the high-quality fresh milk with a transport means that is designed as an earthbound transport means and/or as a boat; • emptying the high-quality fresh milk out of the container; filling the container with the high-quality fresh milk under sterile conditions and within a storage time (Δt) including a period of time between the filling and the emptying of the container, detecting an angle of inclination (+/-w) that is formed between a free surface of the high-quality fresh milk formed towards the headspace (10.1) and a reference system pertaining to the container; detecting a pressure (p) in the headspace (10.1); increasing the pressure (p) as a function of and in proportion to the value of the angle of inclination (+/-w) by supplying a gaseous, sterile fluid into the headspace (10.1) under sterile conditions, and emptying the high-quality fresh milk out of the container under sterile conditions.
Arrangement, comprising a clamping ring and a screw, for clampingly connecting a hollow-shaft region, in particular a hollow-shaft region of an adapter shaft, to a shaft, the shaft being inserted into the hollow-shaft region on which the clamping ring is placed, the clamping ring having a slot that is radially and axially through-going, a tangentially directed stepped bore being arranged in the clamping ring and receiving the screw, the screw being screwed into a threaded region of the stepped bore, which is arranged on the slot side remote from the step of the stepped bore, the spatial region covered by the screw, in particular the screw head, being limited by a limiting means that is connected to the clamping ring and is arranged on the screw-head side remote from the step, characterised in that the limiting means protrudes into the stepped bore in part, the limiting means being connected to the clamping ring in one piece in the axial direction of the screw, the limiting means being configured as deformation regions of the clamping ring, the limiting means being arranged on the screw-head side remote from the step. the shaft being inserted into the hollow-shaft region on which the clamping ring is placed, the clamping ring having a slot that is radially and axially through-going, a tangentially directed stepped bore being arranged in the clamping ring and receiving the screw, the screw being screwed into a threaded region of the stepped bore, which is arranged on the slot side remote from the step of the stepped bore, the spatial region covered by the screw, in particular the screw head, being limited by a limiting means that is connected to the clamping ring and is arranged on the screw-head side remote from the step, characterised in that the limiting means protrudes into the stepped bore in part, the limiting means being connected to the clamping ring in one piece in the axial direction of the screw, the limiting means being configured as deformation regions of the clamping ring, the limiting means being arranged on the screw-head side remote from the step.
A solid-state imaging device comprising an imaging photodetecting section where MxN pixel units P 1,1 to P M,N are two-dimensionally arrayed in M rows and N columns, a trigger photodetecting section including a trigger photodiode that generates charge of an amount according to an incident light amount, a trigger data output section that outputs trigger data according to an amount of charge generated in the trigger photodetecting section, and a control section that controls operation of each pixel unit P m,n of the imaging photodetecting section, wherein each pixel unit P m,n includes a photodiode that generates charge of an amount according to an incident light amount, a first charge accumulating section that accumulates a charge generated in the photodiode, a second charge accumulating section to which a charge accumulated in the first charge accumulating section is transferred, a first initializing section that initializes charge accumulation in the first charge accumulating section, a second initializing section that initializes charge accumulation in the second charge accumulating section, a transfer section that transfers a charge accumulated in the first charge accumulating section to the second charge accumulating section, and an output section that outputs pixel data according to an amount of charge accumulated in the second charge accumulating section to a wiring line L n, and the control section, when an absolute value of trigger data output from the trigger data output section has changed into a state of being in excess of a first threshold from a state of being less than the first threshold, and then the state where the absolute value of the trigger data is in excess of the first threshold has continued for a predetermined time τ 1 or more, judges it as a start of a light incidence, and ends an initializing operation by the first initializing section and starts a charge accumulating operation by the first charge accumulating section for the MxN pixel units P 1,1 to P M,N of the imaging photodetecting section, and when an absolute value of trigger data output from the trigger data output section has changed into a state of being less than a second threshold from a state of being in excess of the second threshold, and then a state where the absolute value of the trigger data is not in excess of the second threshold has continued for a predetermined time τ 2 or more, judges it as an end of a light incidence, and causes a charge transferring operation by the transfer section and a data outputting operation by the output section to be performed for the MxN pixel units P 1,1 to P M,N of the imaging photodetecting section, where M and N are each an integer not less than 2, m is an integer not less than 1 and not more than M, n is an integer not less than 1 and not more than N, and wherein the predetermined time τ 2 is ten times or more longer than the predetermined time τ 1.
A rate matching device, RMB, used for exchanging data between one radio equipment control node, REC, (301, 701, 801) and at least one radio equipment node, RE, (305, 705, 706, 805) the rate matching device comprising: at least one first interface (302, 702, 802, 803) arranged to exchange user data between the REC and the rate matching device, at least one second interface (303, 304, 703, 704, 804) arranged to exchange user data between the rate matching device and the at least one RE, and a map function block arranged to map the user data between said at least one first interface and said at least one second interface, wherein a number of said at least one first interface and a number of said at least one second interface are determined based on the relationship of line bit rates between the REC and the at least one RE, and wherein the map function block is arranged to distribute the user data from one of said at least one first interfaces into two or more of said second interfaces or to distribute the user data from one of said at least one second interface into two or more first interfaces. at least one first interface (302, 702, 802, 803) arranged to exchange user data between the REC and the rate matching device, at least one second interface (303, 304, 703, 704, 804) arranged to exchange user data between the rate matching device and the at least one RE, and a map function block arranged to map the user data between said at least one first interface and said at least one second interface, wherein a number of said at least one first interface and a number of said at least one second interface are determined based on the relationship of line bit rates between the REC and the at least one RE, and wherein the map function block is arranged to distribute the user data from one of said at least one first interfaces into two or more of said second interfaces or to distribute the user data from one of said at least one second interface into two or more first interfaces.
A breathing apparatus characterized by: an expiratory control unit that is adapted to provide a real time variable target pressure (P target) during an expiratory phase to an expiratory pressure regulator for regulating a desired positive end expiratory pressure (PEEP) level (PEEP set), wherein said target pressure (P target) is provided based on an inspiratory tidal volume (VT i) provided by said breathing apparatus of an inspiratory phase of said same breathing cycle and a currently accumulated expiratory tidal volume (VT e).
A method for producing a vector containing multiple expression cassettes by using a first and a second vector each containing at least one homing endonuclease site and at least one restriction enzyme site wherein the HE and X sites are selected such that HE and X result in compatible cohesive ends when cut by the homing endonuclease and the restriction enzyme, respectively, and the ligation product of HE and X cohesive ends can neither be cleaved by the homing endonuclease nor the restriction enzyme, said method comprising the steps of: a. inserting one or more genes between the homing endonuclease site and the X site of the first vector; b. inserting one or more genes between the HE and the X site of the second vector; c. cleaving the first vector with a homing endonuclease specific for site HE and with a restriction enzyme specific for site X yielding a fragment containing the at least one gene flanked by the cleaved HE and X site; d. cleaving the second vector with a homing endonuclease specific for site HE; e. ligating the fragment obtained in step (c) into the cleaved second vector obtained in step (d) generating a third vector. a. inserting one or more genes between the homing endonuclease site and the X site of the first vector; b. inserting one or more genes between the HE and the X site of the second vector; c. cleaving the first vector with a homing endonuclease specific for site HE and with a restriction enzyme specific for site X yielding a fragment containing the at least one gene flanked by the cleaved HE and X site; d. cleaving the second vector with a homing endonuclease specific for site HE; e. ligating the fragment obtained in step (c) into the cleaved second vector obtained in step (d) generating a third vector.