mhurhangee/ep-ind-claims huggingface dataset:
Gas burner assembly for a cooking hob, in particular for a domestic cooking hob, wherein - the gas burner assembly comprises two burner bases (11, 12) arranged side-by-side, - the gas burner assembly comprises a burner crown element arranged or arrangeable above the two burner bases (11, 12), - the gas burner assembly comprises at least one burner cap arranged or arrangeable above the burner crown element, - the heating powers of the burner bases (11, 12) are adjustable separately, - the burner crown element includes a bottom plate subdivided into two portions arranged side-by-side, - each portion of the bottom plate is arranged or arrangeable above one of the two burner bases (11, 12), - the burner crown element includes two side walls, - each side wall encloses one of the two portions of the bottom plate, - the burner crown element includes a plurality of flame ports formed in the side walls, and - the flame ports are arranged in those sections of the side walls arranged opposite to the adjacent portion or portions of the bottom plate. characterized in that the bottom plate of the burner crown element includes two circular portions arranged side-by-side, so that the burner crown element, the bottom plate of said burner crown element, the side walls enclosing said bottom plate and the burner cap are eight-shaped, wherein the flame ports are arranged at two opposite small sides of the burner crown element. - the gas burner assembly comprises two burner bases (11, 12) arranged side-by-side, - the gas burner assembly comprises a burner crown element arranged or arrangeable above the two burner bases (11, 12), - the gas burner assembly comprises at least one burner cap arranged or arrangeable above the burner crown element, - the heating powers of the burner bases (11, 12) are adjustable separately, - the burner crown element includes a bottom plate subdivided into two portions arranged side-by-side, - each portion of the bottom plate is arranged or arrangeable above one of the two burner bases (11, 12), - the burner crown element includes two side walls, - each side wall encloses one of the two portions of the bottom plate, - the burner crown element includes a plurality of flame ports formed in the side walls, and - the flame ports are arranged in those sections of the side walls arranged opposite to the adjacent portion or portions of the bottom plate.
A controller for an implantable blood pump having a first stator, a second stator, and an impeller movably disposed there between, the controller comprising: a control circuit configured to: apply a first voltage waveform at first phase to the first stator to generate a magnetic field to rotate the impeller for a first period of time; apply a second voltage waveform at a second phase shifted from the first phase to the second stator to rotate the impeller during the first period of time, the second voltage waveform being asymmetric to the first voltage waveform. apply a first voltage waveform at first phase to the first stator to generate a magnetic field to rotate the impeller for a first period of time; apply a second voltage waveform at a second phase shifted from the first phase to the second stator to rotate the impeller during the first period of time, the second voltage waveform being asymmetric to the first voltage waveform.
A connection device (40,200,442,500,600,700,800) for holding an object, such as a key, dog tag, and the like, said connection device comprising: a ring (50,202,330,400,508,604,718,808) having ends (56,58,334,458,460,610, 612,702,704,804,806) operable to define an opening (60,456,644,842) therebetween that is configured to receive at least a portion of the object therethrough, said ring (50,202,330,400,508,604,718,808) including a hinge portion (64,224,328,408) spaced from the ends (56,58,334,458,460,610,612,702,704,804,806); and a body (48,204,332,420,506,602,708,814) cooperating with the hinge portion (64,224,328,408) of the ring (50,202,330,400,508,604,718,808) to define a hinged connection (126,206,324,448,802) that forms an axis about which the ring (50,202,330,400,508,604,718,808) and body (48,204,332,420,506,602,708,814) are swingable relative to one another, characterized in that the hinged connection (126,206,324,448,802) is shiftable in a generally transverse direction relative to the axis between first and second positions spaced along the body (48,204,332,420,506,602,708,814), with the ends (56,58,334,458,460,610, 612,702,704,804,806) being moveable into engagement with the body (48,204,332,420,506,602,708,814) when the hinged connection (126,206,324,448,802) is in the first position and the ends (56,58,334,458, 460,610,612,702,704,804,806) being spaced from the body (48,204,332,420, 506,602,708,814) when the hinged connection (126,206,324,448,802) is in the second position. a ring (50,202,330,400,508,604,718,808) having ends (56,58,334,458,460,610, 612,702,704,804,806) operable to define an opening (60,456,644,842) therebetween that is configured to receive at least a portion of the object therethrough, said ring (50,202,330,400,508,604,718,808) including a hinge portion (64,224,328,408) spaced from the ends (56,58,334,458,460,610,612,702,704,804,806); and a body (48,204,332,420,506,602,708,814) cooperating with the hinge portion (64,224,328,408) of the ring (50,202,330,400,508,604,718,808) to define a hinged connection (126,206,324,448,802) that forms an axis about which the ring (50,202,330,400,508,604,718,808) and body (48,204,332,420,506,602,708,814) are swingable relative to one another,
Method for calibrating the orientation of a camera mounted to a vehicle, in particular a truck, comprising the steps of - placing the camera in front of a calibration pattern defining at least two horizontal lines and two vertical lines; - acquiring an image of the calibration pattern by means of the camera, the image having a first axis and a second axis at least essentially corresponding to a horizontal axis and a vertical axis, respectively; - identifying representations of the horizontal lines and the vertical lines within the acquired image; - determining a horizontal vanishing point from the representations of the horizontal lines; - determining a vertical vanishing point from the representations of the vertical lines; characterized in that the method further comprises the steps of - calculating a roll angle by calculating the inverse tangent of the quotient of a second coordinate of the horizontal vanishing point measured along the second axis and the first coordinate of the horizontal vanishing point, - calculating a yaw angle by calculating the inverse tangent of the quotient of a focal length of the camera and the product of a pixel pitch of the camera and the first coordinate of the horizontal vanishing point or of a corrected horizontal vanishing point, and - calculating a pitch angle by calculating the inverse tangent of the quotient of a focal length of the camera and the product of a pixel pitch of the camera and the second coordinate of the vertical vanishing point or of a corrected vertical vanishing point. - placing the camera in front of a calibration pattern defining at least two horizontal lines and two vertical lines; - acquiring an image of the calibration pattern by means of the camera, the image having a first axis and a second axis at least essentially corresponding to a horizontal axis and a vertical axis, respectively; - identifying representations of the horizontal lines and the vertical lines within the acquired image; - determining a horizontal vanishing point from the representations of the horizontal lines; - determining a vertical vanishing point from the representations of the vertical lines; characterized in that the method further comprises the steps of - calculating a roll angle by calculating the inverse tangent of the quotient of a second coordinate of the horizontal vanishing point measured along the second axis and the first coordinate of the horizontal vanishing point, - calculating a yaw angle by calculating the inverse tangent of the quotient of a focal length of the camera and the product of a pixel pitch of the camera and the first coordinate of the horizontal vanishing point or of a corrected horizontal vanishing point, and - calculating a pitch angle by calculating the inverse tangent of the quotient of a focal length of the camera and the product of a pixel pitch of the camera and the second coordinate of the vertical vanishing point or of a corrected vertical vanishing point.
A method for the manufacture of an oil-in-water emulsion comprising an aqueous component, squalene and 0.01 to 2% by weight polysorbate 80, the method comprising: (i) preparing squalene from a composition comprising squalene from an animal source by a process comprising steps of: (a) a purification distillation carried out at a temperature T 1; and (b) a denaturing distillation carried out at a temperature T 2; wherein steps (a) and (b) may be performed in either order; T 1 and T 2 are sufficient to cause squalene to boil; T 2 > T 1; and T 2 ≥ 200°C; and (ii) preparing an emulsion using the squalene prepared in step (i). (i) preparing squalene from a composition comprising squalene from an animal source by a process comprising steps of: (a) a purification distillation carried out at a temperature T 1; and (b) a denaturing distillation carried out at a temperature T 2; wherein steps (a) and (b) may be performed in either order; T 1 and T 2 are sufficient to cause squalene to boil; T 2 > T 1; and T 2 ≥ 200°C; and (ii) preparing an emulsion using the squalene prepared in step (i).
An omnidirectional LED light bulb comprising a lamp base, an electronic driver board, an interface board, at least three or more LED modules, a lower plastic lamp shell and an upper plastic lamp shell, wherein the interface board has slots so that the LED module can be fitted into the slots, wherein the interface board has a slot for connecting the electronic driver board on it, the interface board has electrical conductions traces build on its surface so that the DC electric power which is generated from the electronic driver board can be supply to the LED modules via the interface board, wherein the LED modules board is an aluminum circuit board which can be bended to the required angle to form an elongated S shape with LED chips mounted on the upper surface of it, the lower part of the LED module has no LED chips and acts as a heat sink, and three or more bended LED modules is designed to group together to form a pyramid-like configuration.
A method of traversing a network address translation firewall in a private network of a calling party, said method comprising: receiving, by a SIP proxy in a public network, a SIP Invite request from a calling party; sending a first punch firewall request to a relay agent, behind the firewall, for the calling party to open a port in the firewall for sending SIP signaling messages from the SIP proxy, the punch firewall request containing a public address for the SIP proxy and a calling party private SIP address obtained from the SIP Invite request; receiving a first punch response message from the relay agent, the first punch response message containing the public address of a port at the firewall opened for SIP signaling messages from the SIP proxy; forwarding the SIP Invite request from the SIP proxy to the called party; receiving a SIP response message responsive to the SIP Invite request at the SIP proxy; and forwarding the SIP response message from the SIP proxy to the public address of the port opened for SIP signaling messages. receiving, by a SIP proxy in a public network, a SIP Invite request from a calling party; sending a first punch firewall request to a relay agent, behind the firewall, for the calling party to open a port in the firewall for sending SIP signaling messages from the SIP proxy, the punch firewall request containing a public address for the SIP proxy and a calling party private SIP address obtained from the SIP Invite request; receiving a first punch response message from the relay agent, the first punch response message containing the public address of a port at the firewall opened for SIP signaling messages from the SIP proxy; forwarding the SIP Invite request from the SIP proxy to the called party; receiving a SIP response message responsive to the SIP Invite request at the SIP proxy; and forwarding the SIP response message from the SIP proxy to the public address of the port opened for SIP signaling messages.
Method for image processing, in particular for object measurement, comprising: - capturing a source image of an object using an image acquisition device, wherein the source image is a focus scanning image, in which a focus setting of the image acquisition device is varied during image acquisition; - performing a Fourier transformation of the source image; - generating a corrected image by means of a frequency-dependent correction function applied to the Fourier transform of the source image, characterized in that the correction function is determined on the basis of a comparison of a reference image of an object and a focus scanning image of the same object, wherein, in the process of the comparison, the frequency-dependent amplitude ratio of the Fourier-transformed reference image and the Fourier-transformed focus scanning image is determined. - capturing a source image of an object using an image acquisition device, wherein the source image is a focus scanning image, in which a focus setting of the image acquisition device is varied during image acquisition; - performing a Fourier transformation of the source image; - generating a corrected image by means of a frequency-dependent correction function applied to the Fourier transform of the source image, characterized in that the correction function is determined on the basis of a comparison of a reference image of an object and a focus scanning image of the same object, wherein, in the process of the comparison, the frequency-dependent amplitude ratio of the Fourier-transformed reference image and the Fourier-transformed focus scanning image is determined.
An apparatus comprising a rotary head assembly, wherein the rotary head assembly comprises at least one cutting member receptacle wherein said cutting member receptacle: (i) optionally either rotates or is fixed onto the rotary head assembly; (ii) defines at least one cutter inlet and at least one cutter outlet, wherein the cutter inlet is positioned opposite the cutter outlet and sized and configured to receive at least one cutting member; and (iii) comprises a cutting member retainer, wherein the cutting member retainer is positioned in between the cutter inlet and the cutter outlet, defines a channel extending from the cutter inlet to the cutter outlet and comprises a ramp surface which is either inclining or declining, relative to a point of entry into the inlet so that the cutting member may be inserted into the cutter inlet and engaged with the cutting member retainer and retained by the cutting member receptacle until it is threaded through the cutter outlet, characterized in that the ramp surface comprises at least two side edges configured and sized to define at least two side channels extending from the cutter inlet to the cutter outlet sufficient to receive a cutting member through the cutter inlet and retain the cutting member within the cutting member retainer when in use and release the cutting member when threaded through the cutter outlet. (i) optionally either rotates or is fixed onto the rotary head assembly; (ii) defines at least one cutter inlet and at least one cutter outlet, wherein the cutter inlet is positioned opposite the cutter outlet and sized and configured to receive at least one cutting member; and (iii) comprises a cutting member retainer, wherein the cutting member retainer is positioned in between the cutter inlet and the cutter outlet, defines a channel extending from the cutter inlet to the cutter outlet and comprises a ramp surface which is either inclining or declining, relative to a point of entry into the inlet so that the cutting member may be inserted into the cutter inlet and engaged with the cutting member retainer and retained by the cutting member receptacle until it is threaded through the cutter outlet, characterized in that
An isolated polypeptide having phospholipase C activity, selected from the group consisting of: (a) a polypeptide having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 85% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1; (c) the polypeptide of (a) or (b), comprising or consisting of the mature polypeptide of SEQ ID NO: 2; and (d) a fragment of a polypeptide of (a), (b) or (c) that has phospholipase C activity, and wherein the fragment is at least 550 amino acid residues; wherein the polypeptide has activity towards the four major phospholipids, phosphatidylcholine, phosphatidylethanolamine, phosphatidic acid and phosphatidyl inositol. (a) a polypeptide having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 85% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1; (c) the polypeptide of (a) or (b), comprising or consisting of the mature polypeptide of SEQ ID NO: 2; and (d) a fragment of a polypeptide of (a), (b) or (c) that has phospholipase C activity, and wherein the fragment is at least 550 amino acid residues;
A computer-implemented method for controlling a terminal system, in particular, an automotive terminal system, connectable to multiple provider networks and comprising multiple network access devices, NADs, and a computer system, the method comprising the steps of: reading information on the physical and/or logical location of the terminal system, wherein the logical location for the terminal system is defined by the area identifications sent by provider networks that can be received by the terminal system at a particular physical location, for example, via an NAD; reading user configurations and provider service layer agreements, wherein a service layer agreement is part of the contract between a service consumer and service provider and formally defines the level of service; based on the read information on the physical and/or logical location of the terminal system, user configurations and provider service layer agreements creating associations between applications to be run on the NADs, the NADs and the multiple provider networks; and based on the created associations and the read information on the physical and/or logical location of the terminal system selecting one of the NADs and one of the provider networks for running one of the applications on the selected NAD and connecting the selected NAD with the selected provider network. reading information on the physical and/or logical location of the terminal system, wherein the logical location for the terminal system is defined by the area identifications sent by provider networks that can be received by the terminal system at a particular physical location, for example, via an NAD; reading user configurations and provider service layer agreements, wherein a service layer agreement is part of the contract between a service consumer and service provider and formally defines the level of service; based on the read information on the physical and/or logical location of the terminal system, user configurations and provider service layer agreements creating associations between applications to be run on the NADs, the NADs and the multiple provider networks; and based on the created associations and the read information on the physical and/or logical location of the terminal system selecting one of the NADs and one of the provider networks for running one of the applications on the selected NAD and connecting the selected NAD with the selected provider network.
A nozzle managing system comprising: a nozzle managing machine that includes (a) a nozzle stocker that stores multiple suction nozzles which can be used for mounting work of electric components performed in a mounting machine, (b) a nozzle placing device transfer holding section that detachably holds a nozzle placing device which is used in the mounting machine, and in which the multiple suction nozzles can be placed, and (c) a nozzle transfer device that performs transfer of the suction nozzles between the nozzle placing device held in the nozzle placing device transfer holding section and the nozzle stocker; and a nozzle transfer control device that includes a work plan information memory section that stores work plan information that is information about a plan of the mounting work performed in the mounting machine, acquires nozzle information that is information about the suction nozzles corresponding to the nozzle placing device on the basis of the work plan information stored in the work plan information memory section and nozzle placing device information that is information indicating the nozzle placing device and acquired in a state of being held in the nozzle placing device transfer holding section, and controls the nozzle transfer device on the basis of the nozzle information. a nozzle managing machine that includes (a) a nozzle stocker that stores multiple suction nozzles which can be used for mounting work of electric components performed in a mounting machine, (b) a nozzle placing device transfer holding section that detachably holds a nozzle placing device which is used in the mounting machine, and in which the multiple suction nozzles can be placed, and (c) a nozzle transfer device that performs transfer of the suction nozzles between the nozzle placing device held in the nozzle placing device transfer holding section and the nozzle stocker; and a nozzle transfer control device that includes a work plan information memory section that stores work plan information that is information about a plan of the mounting work performed in the mounting machine, acquires nozzle information that is information about the suction nozzles corresponding to the nozzle placing device on the basis of the work plan information stored in the work plan information memory section and nozzle placing device information that is information indicating the nozzle placing device and acquired in a state of being held in the nozzle placing device transfer holding section, and controls the nozzle transfer device on the basis of the nozzle information.
A warhead comprising at least two portions of high explosive separated by a non-detonative material, characterised in that each portion of high explosive has a cross section below its critical detonation cross section, and wherein the at least two portions of high explosive are arranged such that the total cross section of the at least two portions of high explosive exceeds the critical detonation cross section of said high explosive, such that in use only simultaneous detonation of the at least two portions of high explosive causes detonation to occur.
A compound for use in the prophylaxis or treatment of a metabolic disease or condition, a bone loss condition or pain, wherein the compound is 17α-ethynylandrost-5-ene-3β, 7β, 17β-triol, or a C 2-4 monoester or C 2-4 diester analog of this compound, optionally wherein the monoester is acetate at the 3- or 17-position or the diester is acetate at the 3- and 17-positions.
System for recovering an unmanned aircraft, wherein the system comprises a landing platform and an unmanned aircraft, wherein the unmanned aircraft is a vertical-landing unmanned aircraft, wherein the landing platform comprises a grid, characterized in that the unmanned aircraft comprises a cord, wherein the cord comprises a weight at one end, wherein the weight fits through the grid and wherein the unmanned aircraft does not fit through the grid.