mhurhangee/patent-ind-claim-en huggingface dataset:
Method for patient specific, real time automatically adjusting at least one of technical exposure factors taken from the group consisting of: - X-ray tube power (kV), - X-ray tube current (mA), - Exposure duration (sec) and - Film speed for acquiring a radiographic image of a patient, the method comprising the following steps: A1) Positioning of a patient in an x ray imaging apparatus for acquisition of panoramic images, the said position remaining the same for the acquisitions of the panoramic images; A2) Performing a first acquisition of a scout image, in a specific anatomical area of the said patient using pre-defined parameters ; B) Extracting a Region Of Interest (ROI), from the said scout image; C) A grey level histogram of the image pixels of the ROI of the scout image is provided in which the grey levels are reported on an x-axis and the number of pixels having a certain one of the said grey levels on the y-axis; wherein D) The said histogram of the acquired image is subdivided into five sectors each corresponding to the grey level of a tissue typically represented in a panoramic image; E) At least a coefficient is assigned for each sector; F) A weight is assigned to each coefficient; G) At least an exposure parameter is computed according to the weights assigned to each sector; then the exposure of the real acquisition of a radiographic image is performed with the parameters computed according to the method. - X-ray tube power (kV), - X-ray tube current (mA), - Exposure duration (sec) and - Film speed A1) Positioning of a patient in an x ray imaging apparatus for acquisition of panoramic images, the said position remaining the same for the acquisitions of the panoramic images; A2) Performing a first acquisition of a scout image, in a specific anatomical area of the said patient using pre-defined parameters ; B) Extracting a Region Of Interest (ROI), from the said scout image; C) A grey level histogram of the image pixels of the ROI of the scout image is provided in which the grey levels are reported on an x-axis and the number of pixels having a certain one of the said grey levels on the y-axis; wherein D) The said histogram of the acquired image is subdivided into five sectors each corresponding to the grey level of a tissue typically represented in a panoramic image; E) At least a coefficient is assigned for each sector; F) A weight is assigned to each coefficient; G) At least an exposure parameter is computed according to the weights assigned to each sector;
A three-dimensional modeling apparatus that models a three-dimensional object, the apparatus comprising: an ejection portion capable of ejecting a fluid material, which is a material of the object; and a control portion that forms a laminated body (LB) in which one or more layers each comprising a cross-section body (SB) is laminated by executing one or more repetitions of a cross-section body formation process (S10), which forms a cross-section body equivalent to one layer of the object by controlling the ejection portion and ejecting the fluid material, wherein the control portion executes a correction process (S30) that ejects the fluid material onto a target correction location (DT1), which is at least a portion of an outline section on an upper surface of the laminated body, and characterized in that , if there is no portion of the layer of the laminated body being formed in which a shape of a cross-section body (SB) to be formed on the laminated body (LB) and a shape of the target correction location coincide, the control portion performs the correction process simultaneously with the cross-section body formation process for forming a cross-section body on the laminated body. an ejection portion capable of ejecting a fluid material, which is a material of the object; and a control portion that forms a laminated body (LB) in which one or more layers each comprising a cross-section body (SB) is laminated by executing one or more repetitions of a cross-section body formation process (S10), which forms a cross-section body equivalent to one layer of the object by controlling the ejection portion and ejecting the fluid material, wherein the control portion executes a correction process (S30) that ejects the fluid material onto a target correction location (DT1), which is at least a portion of an outline section on an upper surface of the laminated body, and characterized in that , if there is no portion of the layer of the laminated body being formed in which a shape of a cross-section body (SB) to be formed on the laminated body (LB) and a shape of the target correction location coincide, the control portion performs the correction process simultaneously with the cross-section body formation process for forming a cross-section body on the laminated body.
A gate driver circuit for driving a power switch, the gate driver circuit comprising: a variable current source arranged to be coupled to the power switch and configured to supply a driving strength to the power switch; and a control unit operatively coupled to the variable current source and configured to control the variable current source such that different driving strengths are supplied in at least two of a delay phase , a commutation phase , and a saturation phase when the power switch is transitioned to a first state, characterised in that the control unit is further configured to determine an occurrence of the commutation phase and the saturation phase based on a time elapsed after a time T 1 at which a gate voltage (Vg) at the power switch starts rising in an open loop control mode, on a value of a voltage (Vkpe) between the kelvin emitter terminal and the power emitter terminal in a closed loop control mode, or a combination of both in a hybrid mode. a variable current source arranged to be coupled to the power switch and configured to supply a driving strength to the power switch; and a control unit operatively coupled to the variable current source and configured to control the variable current source such that different driving strengths are supplied in at least two of a delay phase , a commutation phase , and a saturation phase when the power switch is transitioned to a first state, characterised in that the control unit is further configured to determine an occurrence of the commutation phase and the saturation phase based on a time elapsed after a time T 1 at which a gate voltage (Vg) at the power switch starts rising in an open loop control mode, on a value of a voltage (Vkpe) between the kelvin emitter terminal and the power emitter terminal in a closed loop control mode, or a combination of both in a hybrid mode.
An in vitro or ex vivo method for inducing hematopoietic stem cell (HSC) specification, the method comprising; a. contacting a cell for a period of time with an agent selected from the group consisting of Ro5-3335, SU-5402, sc-221405, and AI-10-49; and b. removing said agent after said period of time, thereby inducing HSC specification wherein the period of time is between 1 and 6 days, wherein the cell is selected from the group consisting of an hemogenic endothelial (HE) cell, an embryonic stem cell (ESC), an embryoid body, an aorta-gonad-mesonephros (AGM) cell, a placenta stem cell, an adult stem cell, and an amniotic stem cell, optionally wherein the cell is derived from a non-human dissociated embryo, preferably wherein the non-human dissociated embryo is at least 9 hours post fertilization. a. contacting a cell for a period of time with an agent selected from the group consisting of Ro5-3335, SU-5402, sc-221405, and AI-10-49; and b. removing said agent after said period of time, thereby inducing HSC specification wherein the period of time is between 1 and 6 days,
A paver having a bottom face, a top face and a plurality of side faces from at least one of which outwardly projects a vertical connector ridge that in laying of pavement fits with connector ridges of neighboring pavers, characterized in that the connector ridge has a stepped shape with at least three step-like shoulders arranged in a row, connector ridge sections separated from one another by the shoulders 7, 8) projecting less and less from bottom to top.
A display device comprising: at least one virtual object image source ; and at least one variable lens (LC1), wherein the at least one variable lens comprises at least two variable optical cells, each of the at least two variable optical cells comprises an electrode pattern for adjusting a focal length of the at least one variable lens, and the electrode pattern is configured to change optical power of the at least one variable lens to an equidistant dioptric step, wherein the at least two variable optical cells comprises a first variable optical cell including a first electrode and a second electrode and a second variable optical cell including a third electrode and a fourth electrode , and wherein the second electrode provided on a side of a substrate and the third electrode provided on another side of the substrate. at least one virtual object image source ; and at least one variable lens (LC1), wherein the at least one variable lens comprises at least two variable optical cells, each of the at least two variable optical cells comprises an electrode pattern for adjusting a focal length of the at least one variable lens, and the electrode pattern is configured to change optical power of the at least one variable lens to an equidistant dioptric step, wherein the at least two variable optical cells comprises a first variable optical cell including a first electrode and a second electrode and a second variable optical cell including a third electrode and a fourth electrode , and wherein the second electrode provided on a side of a substrate and the third electrode provided on another side of the substrate.
A method for the automatic pairing of a device wirelessly with a first secure wireless LAN provided by an access point , wherein the access point is a pairing access point providing the first secure wireless LAN and a second wireless LAN, the method including the steps of: i) establishing automatically a connection between the device and a wireless LAN provided by an available access point using security credentials stored on the device ; ii) subsequently determining if the available access point in step (i) is the pairing access point for that device , such that said wireless LAN is the second wireless LAN; and iii) if the available access point is determined to be the pairing access point , then enabling access to a local provisioning server on the pairing access point , and using the connection established in step i) to securely transfer second security credentials from the pairing access point to the device , wherein the second security credentials are requested by the device from the enabled local provisioning server on the pairing access point , and using the transferred second security credentials to establish a secure connection between the device and the first secure wireless LAN provided by the pairing access point . i) establishing automatically a connection between the device and a wireless LAN provided by an available access point using security credentials stored on the device ; ii) subsequently determining if the available access point in step (i) is the pairing access point for that device , such that said wireless LAN is the second wireless LAN; and iii) if the available access point is determined to be the pairing access point , then enabling access to a local provisioning server on the pairing access point , and using the connection established in step i) to securely transfer second security credentials from the pairing access point to the device , wherein the second security credentials are requested by the device from the enabled local provisioning server on the pairing access point , and using the transferred second security credentials to establish a secure connection between the device and the first secure wireless LAN provided by the pairing access point .
A device comprising: a memory configured to store a representation of sensed electrical signals for a particular patient; and one or more processors configured to: select a combination of electrodes of a plurality of combinations of one or more implantable electrodes for delivery of electrical stimulation therapy to the particular patient; and generate information to control the delivery of the electrical stimulation based on the selected combination of the electrodes, characterised in that said selection is based on the representation of sensed electrical signals for a particular patient and a plurality of representations of sensed electrical signals for a plurality of other patients. a memory configured to store a representation of sensed electrical signals for a particular patient; and one or more processors configured to: select a combination of electrodes of a plurality of combinations of one or more implantable electrodes for delivery of electrical stimulation therapy to the particular patient; and generate information to control the delivery of the electrical stimulation based on the selected combination of the electrodes, characterised in that said selection is based on the representation of sensed electrical signals for a particular patient and a plurality of representations of sensed electrical signals for a plurality of other patients. select a combination of electrodes of a plurality of combinations of one or more implantable electrodes for delivery of electrical stimulation therapy to the particular patient; and generate information to control the delivery of the electrical stimulation based on the selected combination of the electrodes, characterised in that said selection is based on the representation of sensed electrical signals for a particular patient and a plurality of representations of sensed electrical signals for a plurality of other patients.
Portable gas tool comprising: a tube for the passage of gas, a tap adapted to be combined with a gas supply from a first side and with said tube from a second side, to supply inflammable gas inside said tube , a handle grip combined with a first end portion of said tube , a burner combined with a second end portion of said tube , and a piezoelectric system comprising an ignition button , a spark plug and an electric cable with a first end combined with said spark plug , wherein said ignition button and said spark plug are placed at said handle grip , and wherein said electric cable has a length inside said tube , substantially extending from said handle grip to said burner , wherein said electric cable comprises a second end opposite said first end arranged outside of said tube , characterized in that the tool comprises a supporting element for fixing said electric cable in said tube and in that said supporting element is arranged at said second end portion of said tube . a tube for the passage of gas, a tap adapted to be combined with a gas supply from a first side and with said tube from a second side, to supply inflammable gas inside said tube , a handle grip combined with a first end portion of said tube , a burner combined with a second end portion of said tube , and a piezoelectric system comprising an ignition button , a spark plug and an electric cable with a first end combined with said spark plug , wherein said ignition button and said spark plug are placed at said handle grip , and wherein said electric cable has a length inside said tube , substantially extending from said handle grip to said burner , wherein said electric cable comprises a second end opposite said first end arranged outside of said tube , characterized in that the tool comprises a supporting element for fixing said electric cable in said tube and in that said supporting element is arranged at said second end portion of said tube .
An RFID transponder, comprising a printable surface for printing by an RFID printer-encoder on the top side of the RFID transponder, an antenna element and an IC on a dielectric substrate, and a ground plane , characterized in that a spacer layer made of a dielectric material is arranged between the dielectric substrate and the ground plane , and the ground plane comprises one or more opening(s) through said ground plane for enabling near field communication through the ground plane . a printable surface for printing by an RFID printer-encoder on the top side of the RFID transponder, an antenna element and an IC on a dielectric substrate, and a ground plane , characterized in that a spacer layer made of a dielectric material is arranged between the dielectric substrate and the ground plane , and the ground plane comprises one or more opening(s) through said ground plane for enabling near field communication through the ground plane .
A method for producing a compound of formula : wherein R 1 is Cl, Br, I or SR, wherein R is H or a hydrocarbon group, and R 6 is C 1-6 -alkyl, haloalkyl or aryl; comprising the steps of (A) reacting a compound of formula : with a compound of the formula M(R 1 ) n , wherein M is cation, n is an integer corresponding to the valence of M, and R 1 is as defined above, and a compound of the formula R 6 -OH , wherein R 6 is as defined above; (B) separating, by filtration, a compound of the formula MF n , wherein M and n are as defined above, from the mixture obtained by the above reaction, and (C) performing a liquid separation treatment on a filtrate obtained by the filtration. R 1 is Cl, Br, I or SR, wherein R is H or a hydrocarbon group, and R 6 is C 1-6 -alkyl, haloalkyl or aryl; comprising the steps of (A) reacting a compound of formula : with a compound of the formula M(R 1 ) n , wherein M is cation, n is an integer corresponding to the valence of M, and R 1 is as defined above, and a compound of the formula R 6 -OH , wherein R 6 is as defined above; (B) separating, by filtration, a compound of the formula MF n , wherein M and n are as defined above, from the mixture obtained by the above reaction, and (C) performing a liquid separation treatment on a filtrate obtained by the filtration. (A) reacting a compound of formula : with a compound of the formula M(R 1 ) n , wherein M is cation, n is an integer corresponding to the valence of M, and R 1 is as defined above, and a compound of the formula R 6 -OH , wherein R 6 is as defined above; (B) separating, by filtration, a compound of the formula MF n , wherein M and n are as defined above, from the mixture obtained by the above reaction, and (C) performing a liquid separation treatment on a filtrate obtained by the filtration.
Furniture hinge with a stop , which is associated with a hinge cup element having a hinge cup and at least one fastening pin, in particular a clamping jaw (72.1, 72.2) of a hinge element or a fastening pin (84.1, 84. 2), for fastening the stop to a piece of furniture, having at least one actuating element (40, 80.1, 80.2) which is operatively connected to the fastening element, and having a hinge arm which is connected to the hinge cup element in a hinged manner via a hinge connection, the at least one actuating element (40, 80.1, 80. 2) being arranged in the direction of movement of the hinge arm in such a way that, when the hinge arm is folded into the hinge cup , it is moved by the hinge arm from a first position into a second position, wherein the hinge arm has an outer hinge lever following an outer articulation connection , wherein the hinge lever is folded into the hinge cup in such a way that, when the hinge arm is folded in, an actuating surface (23. 1) of the hinge link facing the hinge cup is positioned opposite a cup bottom (52.1) of the hinge cup , and wherein the actuating element (40, 80.1, 80.2) is arranged in the direction of movement of the hinge link in such a way that, when the hinge arm is folded in, it is moved away from the actuating surface (23. 1) of the hinge link from the first position into the second position, characterized in that a gear mechanism is arranged between the actuating element (40, 80.1, 80.2) and the fastening element.
Lifting tool for lifting a wind turbine blade by means of a crane for subsequent assembly with a wind turbine , the lifting tool having at least one attachment means for attachment to the crane and at least one holding device for holding the wind turbine blade , wherein the at least one holding device is connected to a controller of the lifting tool and the holding device comprises at least one movable supporting element for supporting the wind turbine blade and at least one actuator connected to the at least one movable supporting element and controlled by the controller so that the movable supporting element is movable by means of the actuator ; characterized in that the lifting tool comprises a lifting tool sensor connected to the controller , whereby the lifting tool sensor is configured to detect a relative distance or position of the lifting tool with respect to the wind turbine ; and whereinthe controller is arranged to control the at least one actuator by means of a function of at least the relative distance or position. the at least one holding device is connected to a controller of the lifting tool and the holding device comprises at least one movable supporting element for supporting the wind turbine blade and at least one actuator connected to the at least one movable supporting element and controlled by the controller so that the movable supporting element is movable by means of the actuator ; characterized in that the lifting tool comprises a lifting tool sensor connected to the controller , whereby the lifting tool sensor is configured to detect a relative distance or position of the lifting tool with respect to the wind turbine ; and whereinthe controller is arranged to control the at least one actuator by means of a function of at least the relative distance or position.
An aircraft defining a longitudinal direction and comprising: a fuselage extending between a forward end and an aft end along the longitudinal direction of the aircraft ; an aft engine mounted to the aft end of the fuselage , the aft engine further comprising a nacelle including a forward section ; and an airflow duct extending at least partially through the nacelle of the aft engine and comprising an outlet on the forward section of the nacelle for providing an airflow to the forward section of the nacelle ; wherein the airflow duct is configured to receive an airflow from a location remote from the aft engine; wherein the airflow duct extends at least partially through one or more structural members extending between the nacelle and the fuselage, and forward through the fuselage ; and wherein the forward section of the nacelle comprises a lip, wherein the outlet is positioned on the lip and provides airflow to the lip . a fuselage extending between a forward end and an aft end along the longitudinal direction of the aircraft ; an aft engine mounted to the aft end of the fuselage , the aft engine further comprising a nacelle including a forward section ; and an airflow duct extending at least partially through the nacelle of the aft engine and comprising an outlet on the forward section of the nacelle for providing an airflow to the forward section of the nacelle ; wherein the airflow duct is configured to receive an airflow from a location remote from the aft engine; wherein the airflow duct extends at least partially through one or more structural members extending between the nacelle and the fuselage, and forward through the fuselage ; and wherein the forward section of the nacelle comprises a lip, wherein the outlet is positioned on the lip and provides airflow to the lip .