mhurhangee/patent-ind-claim-en huggingface dataset:
A method of predicting a clinical outcome in a patient with glioma, the method comprising: assaying a serum sample from the patient for the presence of at least one miRNA selected from the group consisting of: Hsa-miR-92a-3p; comparing the amount of the at least one miRNA present in the serum sample with a reference value; wherein an increase in the amount of the at least one miRNA in the serum sample compared to a reference value, such that the amount is more than twice the reference value, indicates a positive outcome in respect of the patient's glioma, wherein the reference value is the level of the same at least one miRNA present in a serum sample from a control subject without cancer. assaying a serum sample from the patient for the presence of at least one miRNA selected from the group consisting of: Hsa-miR-92a-3p; comparing the amount of the at least one miRNA present in the serum sample with a reference value; wherein an increase in the amount of the at least one miRNA in the serum sample compared to a reference value, such that the amount is more than twice the reference value, indicates a positive outcome in respect of the patient's glioma, wherein the reference value is the level of the same at least one miRNA present in a serum sample from a control subject without cancer.
A motor for an electrodynamic loudspeaker, comprising: a magnetic circuit assembly arranged about a motor axis , comprising: an outer magnet , a magnetically permeable top plate , a magnetically permeable bottom plate , a center pole piece and an air gap for receipt of a voice coil ; wherein the air gap is formed by an inner axially extending wall of the magnetically permeable top plate facing an axially extending peripheral wall section of the center pole piece to define a width, a bottom, a top and height of the air gap ; characterized in that said magnetic circuit assembly comprises: an outwardly projecting, along the motor axis, magnetically permeable member arranged above the top of the air gap ; and said center pole piece comprises a magnetic member extending axially from at least the bottom of the air gap to a magnetically permeable bottom member or to the magnetically permeable bottom plate ; wherein said magnetic member exhibits a relative AC magnetic permeability smaller than 10, such as smaller than 5 or smaller than 2. an outer magnet , a magnetically permeable top plate , a magnetically permeable bottom plate , a center pole piece and an air gap for receipt of a voice coil ; wherein the air gap is formed by an inner axially extending wall of the magnetically permeable top plate facing an axially extending peripheral wall section of the center pole piece to define a width, a bottom, a top and height of the air gap ; characterized in that said magnetic circuit assembly comprises: an outwardly projecting, along the motor axis, magnetically permeable member arranged above the top of the air gap ; and said center pole piece comprises a magnetic member extending axially from at least the bottom of the air gap to a magnetically permeable bottom member or to the magnetically permeable bottom plate ; wherein said magnetic member exhibits a relative AC magnetic permeability smaller than 10, such as smaller than 5 or smaller than 2. an outwardly projecting, along the motor axis, magnetically permeable member arranged above the top of the air gap ; and said center pole piece comprises a magnetic member extending axially from at least the bottom of the air gap to a magnetically permeable bottom member or to the magnetically permeable bottom plate ; wherein said magnetic member exhibits a relative AC magnetic permeability smaller than 10, such as smaller than 5 or smaller than 2.
7-(3-(4-(4-Fluoro-2-methyl-1H-indol-5-yloxy)-6-methoxyquinazolin-7-yloxy)propyl)-2-oxa-7-azaspiro[3.5]nonane in crystalline Form A or crystalline Form B, wherein Form A is a form of 7-(3-(4-(4-fluoro-2-methyl-1H-indol-5-yloxy)-6-methoxyquinazolin-7-yloxy)propyl)-2-oxa-7-azaspiro[3.5]nonane having an X-ray powder diffraction (XRPD) pattern with peaks at 6.11±0.3, 9.63±0.3, 16.41±0.3, 18.60±0.3, 20.36±0.3 and 23.01±0.3 degrees two theta, or 1.445±0.03, 0.917±0.03, 0.540±0.03, 0.477±0.03, 0.436±0.03 and 0.386±0.03 nm (14.45±0.3, 9.17±0.3, 5.40±0.3, 4.77±0.3, 4.36±0.3 and 3.86±0.3 Å) in d-spacing, wherein Form B is a form of 7-(3-(4-(4-fluoro-2-methyl-1H-indol-5-yloxy)-6-methoxyquinazolin-7-yloxy)propyl)-2-oxa-7-azaspiro[3.5]nonane having an X-Ray Powder Diffraction (XRPD) pattern with peaks at 7.70±0.3, 13.53±0.3, 17.27±0.3, 18.44±0.3, 19.73±0.3, 23.10±0.3 and 26.07±0.3 degrees two theta or 1.147±0.03, 0.654±0.03, 0.513±0.03, 0.481±0.03, 0.450±0.03, 0.385±0.03 and 0.341±0.03 nm (11.47±0.3, 6.54±0.3, 5.13±0.3, 4.81±0.3, 4.50±0.3, 3.85±0.3 and 3.41±0.3 Å) in d-spacing, and wherein the XRPD pattern is obtained using Cu/Kα radiation at a wavelength of 0.154059 nm (1.54059 Å).
Transport device for transporting containers in a manner revolving about a vertical machine axis (MA), with - a stationary base unit and a transport unit which can be rotated and/or displaced relative to the base unit , - a plurality of grippers arranged at the transport unit , each holding a container to be transported in a suspended manner, - an actuator arranged in a stationary manner on the base unit in the region of an ejection position (P) for selectively ejecting individual containers, for at least temporarily and at least partially opening the gripper , characterised in that - the gripper has an opening lever for at least partially opening the gripper when the opening lever interacts with the actuator in an angular range encompassing the ejection position (P), and that - the transport device is equipped with an air nozzle , which can be selectively actuated for ejecting the container from the gripper and is arranged in the ejection position (P) on the base unit . - a stationary base unit and a transport unit which can be rotated and/or displaced relative to the base unit , - a plurality of grippers arranged at the transport unit , each holding a container to be transported in a suspended manner, - an actuator arranged in a stationary manner on the base unit in the region of an ejection position (P) for selectively ejecting individual containers, for at least temporarily and at least partially opening the gripper , characterised in that - the gripper has an opening lever for at least partially opening the gripper when the opening lever interacts with the actuator in an angular range encompassing the ejection position (P), and that - the transport device is equipped with an air nozzle , which can be selectively actuated for ejecting the container from the gripper and is arranged in the ejection position (P) on the base unit .
A device for delivering a deliverable agent in the form of an aerosol or vapour to a user, said device comprising a solid, porous carrier material, and plant material comprising the deliverable agent, wherein the carrier material is a solid, continuous three-dimensional network comprising particles of a ceramic material, which particles are bonded together to form voids and wherein the plant material is located within said voids in the carrier material, wherein the device is operable to heat the carrier material and vaporise the deliverable agent.
A method for installing an electric system into an aircraft fuselage, said method comprising the steps of: a. providing a fuselage element extending along an aircraft longitudinal axis and comprising an outer skin and an interior surface, b. providing a foil sheet of an electrically insulating substrate material, c. attaching said foil sheet on the inner side of said fuselage element , d. applying particles of electrically conductive material onto the inner surface of said attached foil sheet opposite the outer skin in a predetermined pattern, such that the accumulated particles of electrically conductive material form electric conductor elements along said inner surface of said foil sheet , characterized in that prior to the step of attaching said foil sheet on the inner side of said fuselage element , at least one power supply cable and/or at least one data transmission cable is attached to the inner side of said fuselage element at such a position, that the power supply cable and/or the data transmission cable is sandwiched between said foil sheet and the inner side of the fuselage element , and means are provided on said foil sheet to couple the power supply cable and/or the data transmission cable to one of said electric conductor elements on said foil sheet . a. providing a fuselage element extending along an aircraft longitudinal axis and comprising an outer skin and an interior surface, b. providing a foil sheet of an electrically insulating substrate material, c. attaching said foil sheet on the inner side of said fuselage element , d. applying particles of electrically conductive material onto the inner surface of said attached foil sheet opposite the outer skin in a predetermined pattern, such that the accumulated particles of electrically conductive material form electric conductor elements along said inner surface of said foil sheet ,
A method of determining one or more geometries for one or more supports for a part produced by solid freeform fabrication, the method comprising: determining a general surface of the part to which the one or more supports join to the part ; dividing the surface into a plurality of regions (R) that require at least one support; forming the at least one support for the region (R); characterised by calculating a cross-sectional area of the at least one support for the region that contacts the part based upon a ratio of a size of the region to a size of the cross-sectional area, wherein the size of the cross-sectional area for the at least one support is between about 0.1% and about 10% of the size of the corresponding region, wherein the size of the region (R) is defined as its largest cross section in a direction perpendicular to the direction of construction. determining a general surface of the part to which the one or more supports join to the part ; dividing the surface into a plurality of regions (R) that require at least one support; forming the at least one support for the region (R); characterised by calculating a cross-sectional area of the at least one support for the region that contacts the part based upon a ratio of a size of the region to a size of the cross-sectional area, wherein the size of the cross-sectional area for the at least one support is between about 0.1% and about 10% of the size of the corresponding region, wherein the size of the region (R) is defined as its largest cross section in a direction perpendicular to the direction of construction.
Apparatus for filling a product into a container (CONT) comprising: - a filling unit configured for delivering the product into the container, the filling unit comprising a pump (P1, P2) and furthermore a filling nozzle (FN1, FN2) at its one end; - a drive unit (DU) for moving the container in relation to the filling unit or vice versa back and forth between a first position, in which a bottom end of the container is arranged at a maximum distance from the filling nozzle, and a second position, in which the bottom end of the container is arranged at a minimum distance from the filling nozzle, and - a control unit (CU) configured to control delivery of the product through the filling nozzle, to control the drive unit, and to calculate a new drive unit motion profile for controlling movement from said second position to said first position, characterized in that the control unit is further configured to calculate the speed of the pump at predefined positions of the drive unit, to calculate drive unit compensation distances as a function of the pump speed at predefined positions of the drive unit, and to update the drive unit motion profile using said drive unit compensation distances. - a filling unit configured for delivering the product into the container, the filling unit comprising a pump (P1, P2) and furthermore a filling nozzle (FN1, FN2) at its one end; - a drive unit (DU) for moving the container in relation to the filling unit or vice versa back and forth between a first position, in which a bottom end of the container is arranged at a maximum distance from the filling nozzle, and a second position, in which the bottom end of the container is arranged at a minimum distance from the filling nozzle, and - a control unit (CU) configured to control delivery of the product through the filling nozzle, to control the drive unit, and to calculate a new drive unit motion profile for controlling movement from said second position to said first position,
An apparatus to provide stimulation to a user, the apparatus comprising: a frame configured to be worn on a head of the user; a left light source configured to generate a left visual stimulus pattern; a right light source configured to generate a right visual stimulus pattern; a left auditory source configured to generate a left auditory stimulus pattern; a right auditory source configured to generate a right auditory stimulus pattern; and a controller coupled to the left light source , the right light source , the left auditory source , and the right auditory source , wherein the controller is configured to control applications of the left visual stimulus pattern, the right visual stimulus pattern, the left auditory stimulus pattern, and the right auditory stimulus pattern independently from one another but coordinated with one another and the controller is configured to control production of a plurality of alternating left and right light signals within the left visual stimulus pattern and the right visual stimulus pattern, wherein said apparatus is configured to alternating provide the left-side light stimulus and right-side auditory stimulus and provide the right-side light stimulus and left-side auditory stimulus. a frame configured to be worn on a head of the user; a left light source configured to generate a left visual stimulus pattern; a right light source configured to generate a right visual stimulus pattern; a left auditory source configured to generate a left auditory stimulus pattern; a right auditory source configured to generate a right auditory stimulus pattern; and a controller coupled to the left light source , the right light source , the left auditory source , and the right auditory source , wherein the controller is configured to control applications of the left visual stimulus pattern, the right visual stimulus pattern, the left auditory stimulus pattern, and the right auditory stimulus pattern independently from one another but coordinated with one another and the controller is configured to control production of a plurality of alternating left and right light signals within the left visual stimulus pattern and the right visual stimulus pattern, wherein said apparatus is configured to alternating provide the left-side light stimulus and right-side auditory stimulus and provide the right-side light stimulus and left-side auditory stimulus.
An electric vehicle thermal management system, comprising: a first loop , a second loop , a first temperature control mechanism and, a second temperature control mechanism ; wherein the first loop is configured for transmitting a first heat conducting agent, a battery and the first temperature control mechanism are respectively connected to the first loop , and the first loop transmits the first heat conducting agent to circulate between the first temperature control mechanism and the battery ; the second loop is configured for transmitting a second heat conducting agent, a driving motor and the second temperature control mechanism are respectively connected to the second loop , and the second loop transmits the second heat conducting agent to circulate between the second temperature control mechanism and the driving motor ; characterised in that the electric vehicle thermal management system further comprises: a conveying mechanism which is respectively connected to the first loop and the second loop ; and a release mechanism which is connected to the first loop , and a release port of the release mechanism faces the battery . a first loop , a second loop , a first temperature control mechanism and, a second temperature control mechanism ; wherein the first loop is configured for transmitting a first heat conducting agent, a battery and the first temperature control mechanism are respectively connected to the first loop , and the first loop transmits the first heat conducting agent to circulate between the first temperature control mechanism and the battery ; the second loop is configured for transmitting a second heat conducting agent, a driving motor and the second temperature control mechanism are respectively connected to the second loop , and the second loop transmits the second heat conducting agent to circulate between the second temperature control mechanism and the driving motor ; characterised in that the electric vehicle thermal management system further comprises: a conveying mechanism which is respectively connected to the first loop and the second loop ; and a release mechanism which is connected to the first loop , and a release port of the release mechanism faces the battery . a conveying mechanism which is respectively connected to the first loop and the second loop ; and a release mechanism which is connected to the first loop , and a release port of the release mechanism faces the battery .
A reconfigurable filter circuit comprising: a first path including a transimpedance amplifier, TIA, having an input that is configured to receive an input current and an output configured to output a voltage; and a switchable feedback path including a first low-pass filter ) coupled to an output of the TIA and a first switch coupled between an output of the first low-pass filter and the input of the TIA , the first switch configured to couple the switchable feedback path to provide a feedback current to the first path resulting in a bandpass response in the output voltage when the first switch is closed and a low-pass response in the output voltage when the first switch is open. a first path including a transimpedance amplifier, TIA, having an input that is configured to receive an input current and an output configured to output a voltage; and a switchable feedback path including a first low-pass filter ) coupled to an output of the TIA and a first switch coupled between an output of the first low-pass filter and the input of the TIA , the first switch configured to couple the switchable feedback path to provide a feedback current to the first path resulting in a bandpass response in the output voltage when the first switch is closed and a low-pass response in the output voltage when the first switch is open.
A battery pack , comprising: a plurality of battery modules ; a tray giving a space where the plurality of battery modules are placed; a plurality of beam frames installed to traverse an upper surface of the tray to partition spaces where the plurality of battery modules are capable of being individually placed; and a plurality of heatsinks formed to have a hollow structure through which a coolant flows, wherein the coolant is water, the plurality of heatsinks being selectively coupled to a part of the plurality of beam frames so as to be disposed to face a side surface of the battery modules , respectively, wherein a drainage hole is respectively provided at the tray and the beam frame and perforated in a lower direction with respect to the heatsink , wherein a drainage path having a concave shape is formed at a lower portion of the heatsink . a plurality of battery modules ; a tray giving a space where the plurality of battery modules are placed; a plurality of beam frames installed to traverse an upper surface of the tray to partition spaces where the plurality of battery modules are capable of being individually placed; and a plurality of heatsinks formed to have a hollow structure through which a coolant flows, wherein the coolant is water, the plurality of heatsinks being selectively coupled to a part of the plurality of beam frames so as to be disposed to face a side surface of the battery modules , respectively, wherein a drainage hole is respectively provided at the tray and the beam frame and perforated in a lower direction with respect to the heatsink , wherein a drainage path having a concave shape is formed at a lower portion of the heatsink .
A signal measurement method, comprising: receiving , by a user equipment , configuration information of a downlink reference signal, wherein the configuration information of the downlink reference signal is used to indicate air interface sending information of the downlink reference signal, a time-frequency resource location occupied by the downlink reference signal is configurable by a network side device ; receiving , by the user equipment , the downlink reference signal, wherein the downlink reference signal is generated based on the configuration information of the downlink reference signal; receiving , by the user equipment , a synchronization signal; obtaining a first measurement result through measurement based on the downlink reference signal when the user equipment is located in a preset edge area; obtaining a second measurement result through measurement based on the synchronization signal when the user equipment is located in a preset center area; and sending , by the user equipment , the first measurement result and the second measurement result. receiving , by a user equipment , configuration information of a downlink reference signal, wherein the configuration information of the downlink reference signal is used to indicate air interface sending information of the downlink reference signal, a time-frequency resource location occupied by the downlink reference signal is configurable by a network side device ; receiving , by the user equipment , the downlink reference signal, wherein the downlink reference signal is generated based on the configuration information of the downlink reference signal; receiving , by the user equipment , a synchronization signal; obtaining a first measurement result through measurement based on the downlink reference signal when the user equipment is located in a preset edge area; obtaining a second measurement result through measurement based on the synchronization signal when the user equipment is located in a preset center area; and sending , by the user equipment , the first measurement result and the second measurement result.
Submersible pump with a float switch device, comprising a float member associated with the body of a said pump for controlling the starting and stopping of said pump as a function of the liquid level (L1, L2); said float member being provided with a switch member electrically connected to a motor member of said pump through a flexible cable which is associated with a tilting support member mounted in tilting manner on the outside of said body of said pump on a pin with substantially horizontal axis; wherein said support member comprises a sleeve through which said flexible cable is longitudinally inserted and passes through; wherein said sleeve is constrained, in an adjustable position, through said pin , along a longitudinal guide which is fixed to said body of said pump . said float member being provided with a switch member electrically connected to a motor member of said pump through a flexible cable which is associated with a tilting support member mounted in tilting manner on the outside of said body of said pump on a pin with substantially horizontal axis; wherein said support member comprises a sleeve through which said flexible cable is longitudinally inserted and passes through; wherein said sleeve is constrained, in an adjustable position, through said pin , along a longitudinal guide which is fixed to said body of said pump .