mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the biotransformation of aromatic acids to their reduced carbon aromatic acids comprising: a) culturing or growing Amycolatopsis mediterranei NCIM 5008 in a fermentor at a temperature in the range of 37-46 °C for 16-24 hours; b) adding the alkaline solution of substrate containing aromatic acid to the fermentation broth of step (a) to obtain the final concentration of 1-15 g/L for aromatic acid; wherein aromatic acid is converted for 24-50 hours and converted liquid containing reduced carbon aromatic acid is obtained; c) centrifuging or filtrating the converted liquid of step (b) to obtain retentate comprising culture cells, and permeate comprising converted liquid with reduced carbon aromatic acid; d) optionally precipitating the converted liquid obtained from step (c) to isolate crude reduced carbon aromatic acid in solid form; and e) optionally recrystallizing the crude reduced carbon aromatic acid from (d) to obtain pure reduced carbon aromatic acid. a) culturing or growing Amycolatopsis mediterranei NCIM 5008 in a fermentor at a temperature in the range of 37-46 °C for 16-24 hours; b) adding the alkaline solution of substrate containing aromatic acid to the fermentation broth of step (a) to obtain the final concentration of 1-15 g/L for aromatic acid; wherein aromatic acid is converted for 24-50 hours and converted liquid containing reduced carbon aromatic acid is obtained; c) centrifuging or filtrating the converted liquid of step (b) to obtain retentate comprising culture cells, and permeate comprising converted liquid with reduced carbon aromatic acid; d) optionally precipitating the converted liquid obtained from step (c) to isolate crude reduced carbon aromatic acid in solid form; and e) optionally recrystallizing the crude reduced carbon aromatic acid from (d) to obtain pure reduced carbon aromatic acid.
A method comprising: receiving, wirelessly at a precision fluidic temperature control device , a machine-readable code, the fluidic temperature control device including a processor, a memory, a display , a heating element, and an agitator; wherein the fluidic temperature control device is sealed against water and can be submersed in a container of liquid without damaging the device, the precision fluidic temperature control device being configured to heat the liquid to a constant precise temperature; the method further comprising: using an optical reader to read a machine-readable code; translating, at the fluidic temperature control device , the machine-readable code into one or more cooking attributes; determining, at the fluid temperature control device, a temperature and cook time based on the one or more cooking attributes; and automatically configuring the fluid temperature control device to the temperature and the cook time; wherein the machine-readable code comprises a QR code or 3D barcode. receiving, wirelessly at a precision fluidic temperature control device , a machine-readable code, the fluidic temperature control device including a processor, a memory, a display , a heating element, and an agitator; wherein the fluidic temperature control device is sealed against water and can be submersed in a container of liquid without damaging the device, the precision fluidic temperature control device being configured to heat the liquid to a constant precise temperature; the method further comprising: using an optical reader to read a machine-readable code; translating, at the fluidic temperature control device , the machine-readable code into one or more cooking attributes; determining, at the fluid temperature control device, a temperature and cook time based on the one or more cooking attributes; and automatically configuring the fluid temperature control device to the temperature and the cook time; wherein the machine-readable code comprises a QR code or 3D barcode. using an optical reader to read a machine-readable code; translating, at the fluidic temperature control device , the machine-readable code into one or more cooking attributes; determining, at the fluid temperature control device, a temperature and cook time based on the one or more cooking attributes; and automatically configuring the fluid temperature control device to the temperature and the cook time; wherein the machine-readable code comprises a QR code or 3D barcode.
A method of cryogenically preserving sperm comprising: a. combining sperm to be cryogenically preserved and a composition that comprises a cryoprotectant, comprising one or more tree saps; and an extender medium to produce a sperm/medium combination; and b. subjecting the combination to conditions that result in cryopreservation of sperm, thereby producing a cryopreserved combination that comprises cryopreserved sperm. a. combining sperm to be cryogenically preserved and a composition that comprises a cryoprotectant, comprising one or more tree saps; and an extender medium to produce a sperm/medium combination; and b. subjecting the combination to conditions that result in cryopreservation of sperm, thereby producing a cryopreserved combination that comprises cryopreserved sperm.
A method of digitally modeling an industrial space , the industrial space comprising a plurality of equipment items (E1-E7) arranged in an industrial building (B), the modeling method is characterized by: - a step of three-dimensional digitization of the industrial space so as to obtain a web (NAP) comprising a plurality of points defining meshes representing the outer envelope of the industrial space with all of its equipment items (E1-E7), - a step of real-time segmentation of the web (NAP) in a virtual environment by a user during which: - an encompassing shape (F) is positioned by the user in the virtual environment to encompass at least one equipment item to be segmented (E1-E7) - the points of the web (NAP), belonging to the volume of the encompassing shape (F), are associated so as to form a virtual object (OBJ) corresponding to a single equipment item (E1-E7), to a plurality of equipment items (E1-E7) associated together, or only to a part of an equipment item (E1-E7). - a step of three-dimensional digitization of the industrial space so as to obtain a web (NAP) comprising a plurality of points defining meshes representing the outer envelope of the industrial space with all of its equipment items (E1-E7), - a step of real-time segmentation of the web (NAP) in a virtual environment by a user during which: - an encompassing shape (F) is positioned by the user in the virtual environment to encompass at least one equipment item to be segmented (E1-E7) - the points of the web (NAP), belonging to the volume of the encompassing shape (F), are associated so as to form a virtual object (OBJ) corresponding to a single equipment item (E1-E7), to a plurality of equipment items (E1-E7) associated together, or only to a part of an equipment item (E1-E7). - an encompassing shape (F) is positioned by the user in the virtual environment to encompass at least one equipment item to be segmented (E1-E7) - the points of the web (NAP), belonging to the volume of the encompassing shape (F), are associated so as to form a virtual object (OBJ) corresponding to a single equipment item (E1-E7), to a plurality of equipment items (E1-E7) associated together, or only to a part of an equipment item (E1-E7).
Handle arrangement comprising: a housing , and a handle comprising a handle grip and a handle coupling portion , the handle rotatable relative to the housing around a first axis (A), wherein the handle arrangement further comprises a gear , the gear rotatable relative to said housing around a second axis (B), and a motion converter comprising a gear rack arranged adjacently to the gear , the motion converter gear rack being linearly moveable relative to the gear along a third axis (C) and comprises cut teeth configured to engage with corresponding cogs of the gear, wherein the motion converter is coupled to the handle such that a rotation of the handle around the first axis (A) causes the motion converter gear rack to move along the third axis (C) causing the gear to rotate around the second axis (B), characterized in that the motion converter is provided with a cavity containing a pre-biased spring configured to push an abutting element towards a recess (11a-c) in said handle , the recess configured to receive the abutting element such that the handle is kept in place in at least one position. a housing , and a handle comprising a handle grip and a handle coupling portion , the handle rotatable relative to the housing around a first axis (A), wherein the handle arrangement further comprises a gear , the gear rotatable relative to said housing around a second axis (B), and a motion converter comprising a gear rack arranged adjacently to the gear , the motion converter gear rack being linearly moveable relative to the gear along a third axis (C) and comprises cut teeth configured to engage with corresponding cogs of the gear, wherein the motion converter is coupled to the handle such that a rotation of the handle around the first axis (A) causes the motion converter gear rack to move along the third axis (C) causing the gear to rotate around the second axis (B), characterized in that the motion converter is provided with a cavity containing a pre-biased spring configured to push an abutting element towards a recess (11a-c) in said handle , the recess configured to receive the abutting element such that the handle is kept in place in at least one position.
A harvesting head height control circuit for controlling the height of an articulated harvesting head that is supported on a combine harvester during harvesting in an agricultural field, the articulated harvesting head including a center section , a left section , and a right section , wherein the left section is coupled to the center section and extends leftward therefrom, wherein the right section is coupled to the center section and extends rightward therefrom, wherein a first actuator is coupled to the to the left section to raise the left section with respect to the center section , wherein a second actuator is coupled to the right section to raise the right section with respect to the center section , wherein the harvesting head height control circuit comprises an ECU coupled to the first actuator to raise and lower the left section , and coupled to the second actuator to raise and lower the right section ; characterized in that the harvesting head height control circuit comprises: a first load sensor coupled to the ECU and disposed to sense a first force acting rearwardly against the left section and configured to generate a first signal indicative of the first force; and a second load sensor coupled to the ECU and disposed to sense a second force acting rearwardly against the right section and configured to generate a second signal indicative of the second force; and that the ECU is configured to receive the first signal and the second signal and to responsively raise and lower the left section and the right section based at least on a magnitude of the first signal and the second signal. a first load sensor coupled to the ECU and disposed to sense a first force acting rearwardly against the left section and configured to generate a first signal indicative of the first force; and a second load sensor coupled to the ECU and disposed to sense a second force acting rearwardly against the right section and configured to generate a second signal indicative of the second force; and that the ECU is configured to receive the first signal and the second signal and to responsively raise and lower the left section and the right section based at least on a magnitude of the first signal and the second signal.
A panic lock for a door or window comprising a case , a translatable bolt supported by a support plate provided with a slot , a translatable latch , a slit into which to insert a key, a cylinder having a pawl that is rotatable by said key for moving said bolt , a rotatable element for driving the latch , a cam present on said rotatable element for driving the latch , characterised in that it comprises a movement receiver and distributor comprising at least one first rotatable plate pivoted on the case , said first plate comprising a first shaped perimeter take-up profile for taking up the movement from said pawl , a second shaped perimeter take-up profile for taking up the movement from said cam , and a drawing organ for drawing the bolt that is slidable in said slot , said slot having an intermediate portion shaped for reversible movement of the bolt by the drawing organ , a first and respectively a second end portion shaped for locking the bolt by the drawing organ in extraction and respectively retraction end stroke positions from/into the case , an elastic pushing element being further provided that is pivoted on the case and interacts with said first plate to assist reaching said end stroke positions.
A system for connecting to a wireless network in a wireless local area network, WLAN, communication, comprising: at least one storage medium including a set of instructions for connecting to the wireless network; and at least one processor in communication with the storage medium, wherein when executing the set of instructions, the at least one processor is directed to: obtain, within a dwell time, at least one packet transmitting on a current channel among a plurality of predetermined channels, wherein the plurality of predetermined channels at least include a target channel on which a connection to the wireless network is to be established; determine a matching score of the current channel based on the at least one packet, wherein the matching score reflects a likelihood that the current channel is the target channel; and determine, based on the matching score, an additional dwell time for continuing dwelling on the current channel to further evaluate the likelihood that the current channel is the target channel, wherein to determine the matching score, the at least one processor is directed to: obtain a length of each of the at least one packet; for every two adjacent packets of the at least one packet, determine a length difference between lengths of the two adjacent packets; and determine the matching score based on the length differences. at least one storage medium including a set of instructions for connecting to the wireless network; and at least one processor in communication with the storage medium, obtain, within a dwell time, at least one packet transmitting on a current channel among a plurality of predetermined channels, wherein the plurality of predetermined channels at least include a target channel on which a connection to the wireless network is to be established; determine a matching score of the current channel based on the at least one packet, wherein the matching score reflects a likelihood that the current channel is the target channel; and determine, based on the matching score, an additional dwell time for continuing dwelling on the current channel to further evaluate the likelihood that the current channel is the target channel, wherein to determine the matching score, the at least one processor is directed to: obtain a length of each of the at least one packet; for every two adjacent packets of the at least one packet, determine a length difference between lengths of the two adjacent packets; and determine the matching score based on the length differences. obtain a length of each of the at least one packet; for every two adjacent packets of the at least one packet, determine a length difference between lengths of the two adjacent packets; and determine the matching score based on the length differences.
A fluid mixing system comprising: a container bounding a compartment , the container having a first end and an opposing second end; an elongated first drive line disposed within the compartment of the container and having a length extending between a first end and an opposing second end, at least a portion of the length of the first drive line being flexible; an elongated second drive line disposed within the compartment of the container and having a length extending between a first end and an opposing second end, at least a portion of the length of the second drive line being flexible, the first drive line and second drive line being rotatable within the compartment of the container; characterized by at least one tie extending between the first drive line and the second drive line so as to maintain at least a portion of the first drive line and the second drive line at lateral spaced apart positions within the compartment. a container bounding a compartment , the container having a first end and an opposing second end; an elongated first drive line disposed within the compartment of the container and having a length extending between a first end and an opposing second end, at least a portion of the length of the first drive line being flexible; an elongated second drive line disposed within the compartment of the container and having a length extending between a first end and an opposing second end, at least a portion of the length of the second drive line being flexible, the first drive line and second drive line being rotatable within the compartment of the container; characterized by at least one tie extending between the first drive line and the second drive line so as to maintain at least a portion of the first drive line and the second drive line at lateral spaced apart positions within the compartment.
A method for determining or monitoring the state of a progressive cavity pump which has a stator and a rotor which is rotating in the stator with a pump frequency, wherein the time curve of an operating parameter of the pump is provided, which operating parameter pulses periodically with the pump frequency or a multiple of the pump frequency and the pulsation amplitude of the operating parameter depends on the state of the progressive cavity pump, wherein the pulsation amplitude is ascertained and the state of the progressive cavity pump is determined by comparing the pulsation amplitude with one or more comparison values, wherein the state that is determined or monitored is a state of wear of the progressive cavity pump, wherein the operating pressure is provided as operating parameter by a measurement on the pressure side of the stator and the pulsation amplitude of the pressure pulsation is ascertained, wherein the pulsation amplitude of the pressure pulsation depends on the state of wear of the stator and/or the rotor. wherein the time curve of an operating parameter of the pump is provided, which operating parameter pulses periodically with the pump frequency or a multiple of the pump frequency and the pulsation amplitude of the operating parameter depends on the state of the progressive cavity pump, wherein the pulsation amplitude is ascertained and the state of the progressive cavity pump is determined by comparing the pulsation amplitude with one or more comparison values, wherein the state that is determined or monitored is a state of wear of the progressive cavity pump, wherein the operating pressure is provided as operating parameter by a measurement on the pressure side of the stator and the pulsation amplitude of the pressure pulsation is ascertained, wherein the pulsation amplitude of the pressure pulsation depends on the state of wear of the stator and/or the rotor.
An ultrasonic diagnostic imaging system for assessing the degree of stenosis of a vessel caused by an obstruction, the ultrasonic diagnostic imaging system comprising: an ultrasound probe adapted to acquire three-dimensional ultrasound data from blood flow in the vessel ; a 3D data memory coupled to the ultrasound probe , and adapted to store the three-dimensional ultrasound data from blood flow in the vessel ; a volume flow calculator , coupled to the 3D data memory , and adapted to compute a volume flow measurement at an unobstructed point of the vessel ; a Doppler processor , coupled to the ultrasound probe and responsive to ultrasound data from blood flow in the vessel , and adapted to produce a velocity measurement at the stenosis of the vessel ; and an occlusion calculator , responsive to the volume flow measurement and the velocity measurement, and adapted to produce a measurement of the flow reduction caused by the stenosis based on a quotient of the velocity measurement at the stenosis of the vessel and the volume flow measurement at the unobstructed point of the vessel , wherein the volume flow calculator is further adapted to calculate the sum or integral of velocity values of a virtual surface intersecting the vessel , and wherein the virtual surface is obtained by obtaining a three-dimensional Doppler image in a narrow sample volume equidistant from a two-dimensional array transducer accommodated in the probe . an ultrasound probe adapted to acquire three-dimensional ultrasound data from blood flow in the vessel ; a 3D data memory coupled to the ultrasound probe , and adapted to store the three-dimensional ultrasound data from blood flow in the vessel ; a volume flow calculator , coupled to the 3D data memory , and adapted to compute a volume flow measurement at an unobstructed point of the vessel ; a Doppler processor , coupled to the ultrasound probe and responsive to ultrasound data from blood flow in the vessel , and adapted to produce a velocity measurement at the stenosis of the vessel ; and an occlusion calculator , responsive to the volume flow measurement and the velocity measurement, and adapted to produce a measurement of the flow reduction caused by the stenosis based on a quotient of the velocity measurement at the stenosis of the vessel and the volume flow measurement at the unobstructed point of the vessel , wherein the volume flow calculator is further adapted to calculate the sum or integral of velocity values of a virtual surface intersecting the vessel , and wherein the virtual surface is obtained by obtaining a three-dimensional Doppler image in a narrow sample volume equidistant from a two-dimensional array transducer accommodated in the probe .
A utility vehicle equipped with driving wheels attached to a chassis to run about a working area (AR), the vehicle having a contact sensor configured to detect contact with an obstacle from displacement between the chassis and a cover attached to the chassis , wherein the contact sensor comprises: a plate that is attached to the cover and disposed in a space formed between the chassis and the cover and extends horizontally, the plate being attached to the chassis with elastic members ; a detection element that is disposed between the plate and the chassis and generates an output indicating the displacement between the plate and the chassis ; and a detector connected to the detection element to detect the contact with the obstacle based on the outputs of the detection element , characterized in that the elastic members comprise wires that loosely connect the plate to the chassis . a plate that is attached to the cover and disposed in a space formed between the chassis and the cover and extends horizontally, the plate being attached to the chassis with elastic members ; a detection element that is disposed between the plate and the chassis and generates an output indicating the displacement between the plate and the chassis ; and a detector connected to the detection element to detect the contact with the obstacle based on the outputs of the detection element , characterized in that the elastic members comprise wires that loosely connect the plate to the chassis .
An HSV vector comprising an NF-κB response element in a regulatory region of a viral gene that affects viral replication efficiency.