mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for determining a graph interface and an implementation of the graph interface, the method including: receiving, by a computer, a specification including a description of a first directed graph including a first plurality of components (302A-302D) interconnected by a first set of one or more directed links (306A-306G); automatically forming, by a computer, a graph interface for the first plurality of components (302A-302D), the graph interface being a placeholder in a container graph to be replaced by an implementation that conforms to the graph interface prior to execution of the container graph, where forming the graph interface includes: forming a first interface element of the graph interface, the first interface element being associated with a first port of a first component of the first plurality of components, and configuring one or more properties of the first interface element such that the first port of the first component is consistent with the one or more properties of the first interface element; automatically forming, by a computer, a first implementation of the graph interface including the first plurality of components (302A-302D), the forming including forming a first correspondence between the first interface element and the first port of the first component of the first plurality of components (302A-302D); and storing the first implementation of the graph interface in a data storage system. receiving, by a computer, a specification including a description of a first directed graph including a first plurality of components (302A-302D) interconnected by a first set of one or more directed links (306A-306G); automatically forming, by a computer, a graph interface for the first plurality of components (302A-302D), the graph interface being a placeholder in a container graph to be replaced by an implementation that conforms to the graph interface prior to execution of the container graph, where forming the graph interface includes: forming a first interface element of the graph interface, the first interface element being associated with a first port of a first component of the first plurality of components, and configuring one or more properties of the first interface element such that the first port of the first component is consistent with the one or more properties of the first interface element; forming a first interface element of the graph interface, the first interface element being associated with a first port of a first component of the first plurality of components, and configuring one or more properties of the first interface element such that the first port of the first component is consistent with the one or more properties of the first interface element; automatically forming, by a computer, a first implementation of the graph interface including the first plurality of components (302A-302D), the forming including forming a first correspondence between the first interface element and the first port of the first component of the first plurality of components (302A-302D); and storing the first implementation of the graph interface in a data storage system.
A ferromagnetic thin-film based digital memory cell having a substrate and a bit structure supported on said substrate, said bit structure comprising a nonmagnetic intermediate layer, said nonmagnetic intermediate layer having two major surfaces on opposite sides thereof; a memory film (12, 14) of an anisotropic ferromagnetic material on each of said major surfaces of said nonmagnetic intermediate layer; an electrically insulative intermediate layer on said memory film and across said memory film from one of said major surfaces of said nonmagnetic intermediate layer, with said electrically insulative intermediate layer having a major surface on a side opposite said memory film; characterized by: a magnetization reference layer on said major surface of said electrically insulative intermediate layer having a fixed or relatively-fixed magnetization direction; and an electrical current conductor positioned across an insulating layer from said magnetization reference layer. a magnetization reference layer on said major surface of said electrically insulative intermediate layer having a fixed or relatively-fixed magnetization direction; and an electrical current conductor positioned across an insulating layer from said magnetization reference layer.
An apparatus for delivering tumor treating fields, the apparatus comprising: a plurality of sets of electrode elements (A, B; 52); a plurality of temperature sensors positioned to measure a temperature at each of the sets of electrode elements (A, B; 52); and an AC voltage generator configured for applying an AC voltage across the plurality of sets of electrode elements (A, B; 52); characterised in that each of the sets of electrode elements (A, B; 52), said temperature sensors and said AC voltage generator are configured for implantation within a person's body. a plurality of sets of electrode elements (A, B; 52); a plurality of temperature sensors positioned to measure a temperature at each of the sets of electrode elements (A, B; 52); and an AC voltage generator configured for applying an AC voltage across the plurality of sets of electrode elements (A, B; 52); characterised in that each of the sets of electrode elements (A, B; 52), said temperature sensors and said AC voltage generator are configured for implantation within a person's body.
A compound of Formula 1, or a pharmaceutically acceptable salt or solvate thereof: wherein R 1 is chlorine, fluorine, or unsubstituted C 1 -C 4 alkyl; R 2 is unsubstituted C 1 -C 4 alkyl or unsubstituted -O-C 1 -C 4 alkyl; R 3 is hydrogen or unsubstituted C 1 -C 4 alkyl; each R 4 is independently selected from hydrogen, fluorine, chlorine, -CN, or unsubstituted C 1 -C 4 alkyl; R 5 is hydrogen or unsubstituted C 1 -C 4 alkyl; each R 6 is independently selected from fluorine, -OH, or unsubstituted C 1 -C 4 alkyl and q is 0, 1, or 2; Z 1 is N or CR 7 wherein R 7 is hydrogen, fluorine, chlorine, -CN, or unsubstituted C 1 -C 4 alkyl; Z 2 is N or CR 7A wherein R 7A is hydrogen, fluorine, chlorine, -CN, or unsubstituted C 1 -C 4 alkyl; Z 3 is N or CR 7B wherein R 7B is hydrogen, fluorine, chlorine, -CN, or unsubstituted C 1 -C 4 alkyl; Y 1 is N or CR 8; Y 2 is N or CR 8; Y 3 is N or CR 8; Y 4 is N or CR 8; each R 8 is independently selected from hydrogen, fluorine, chlorine, -CN, and unsubstituted C 1 -C 4 alkyl; X 1 is N; X 2 is CR 4; and X 3 is CR 4; wherein at least one of Y 1, Y 2, Y 3, Y 4, Z 1, Z 2, and Z 3 are N and not more than two of Y 1, Y 2, Y 3, and Y 4 are N. R 1 is chlorine, fluorine, or unsubstituted C 1 -C 4 alkyl; R 2 is unsubstituted C 1 -C 4 alkyl or unsubstituted -O-C 1 -C 4 alkyl; R 3 is hydrogen or unsubstituted C 1 -C 4 alkyl; each R 4 is independently selected from hydrogen, fluorine, chlorine, -CN, or unsubstituted C 1 -C 4 alkyl; R 5 is hydrogen or unsubstituted C 1 -C 4 alkyl; each R 6 is independently selected from fluorine, -OH, or unsubstituted C 1 -C 4 alkyl and q is 0, 1, or 2; Z 1 is N or CR 7 wherein R 7 is hydrogen, fluorine, chlorine, -CN, or unsubstituted C 1 -C 4 alkyl; Z 2 is N or CR 7A wherein R 7A is hydrogen, fluorine, chlorine, -CN, or unsubstituted C 1 -C 4 alkyl; Z 3 is N or CR 7B wherein R 7B is hydrogen, fluorine, chlorine, -CN, or unsubstituted C 1 -C 4 alkyl; Y 1 is N or CR 8; Y 2 is N or CR 8; Y 3 is N or CR 8; Y 4 is N or CR 8; each R 8 is independently selected from hydrogen, fluorine, chlorine, -CN, and unsubstituted C 1 -C 4 alkyl; X 1 is N; X 2 is CR 4; and X 3 is CR 4; wherein at least one of Y 1, Y 2, Y 3, Y 4, Z 1, Z 2, and Z 3 are N and not more than two of Y 1, Y 2, Y 3, and Y 4 are N.
A diffractive security device comprising first and second diffractive structures defined in a carrier layer, the first diffractive structure being a diffractive zone plate structure of a continuously curved surface configured such that when the device is illuminated by on-axis light a first diffraction pattern generated by the first diffractive structure can be viewed from at least a first side of the device at substantially all viewing angles, the first diffraction pattern exhibiting a reference point or reference line relative to which other features of the first diffraction pattern appear to move when the viewing angle is changed; and the second diffractive structure being an off-axis diffractive structure configured such that when the device is illuminated by on-axis light a second diffraction pattern generated by the second diffractive structure can be viewed from at least the first side of the device at at least some off-axis viewing angles, wherein the second diffractive structure comprises a plurality of laterally offset portions, each portion of the second diffractive structure being configured such that when the device is illuminated by on-axis light the portion of the second diffraction effect generated by the respective portion of the second diffractive structure can be viewed only from a respective subset of one or more predetermined off-axis viewing angles, the respective subsets of viewing angles being different for different portions of the second diffractive structure such that when the viewing angle is changed different portions of the second diffractive device diffract light to the viewer in sequence, whereby the second diffraction effect appears to change; wherein the device has one or more first regions in which the first diffractive structure is present but not the second diffractive structure, and the device has one or more second regions in which the second diffractive structure is present, the first diffractive structure optionally being present and combined with the second diffractive structure in the second regions, the first and second regions being interspersed with one another across the device, such that the first diffraction pattern is exhibited across the device at all viewing angles and at at least some viewing angles the second diffraction pattern appears superimposed on the first diffraction pattern and upon changing the viewing angle the second diffraction pattern exhibits a change referenced against the reference point or reference line of the first diffraction pattern.
A battery pack, the battery pack comprising: an upper housing portion including a first air vent; a lower support frame configured to receive a plurality of battery cells and to space apart the battery cells from one another, the lower support frame including a second air vent positioned at a first end of the lower support frame, a third air vent positioned at a second end of the lower support frame, and an air passage positioned between the second air vent and the third air vent, wherein the first air vent is positioned approximately or substantially directly above the third air vent, the third air vent is positioned on the opposite side of the battery pack to the first air vent, and the third air vent is at least partially isolated from the first air vent by a heat sink. an upper housing portion including a first air vent; a lower support frame configured to receive a plurality of battery cells and to space apart the battery cells from one another, the lower support frame including a second air vent positioned at a first end of the lower support frame, a third air vent positioned at a second end of the lower support frame, and an air passage positioned between the second air vent and the third air vent, wherein the first air vent is positioned approximately or substantially directly above the third air vent, the third air vent is positioned on the opposite side of the battery pack to the first air vent, and the third air vent is at least partially isolated from the first air vent by a heat sink. a second air vent positioned at a first end of the lower support frame, a third air vent positioned at a second end of the lower support frame, and an air passage positioned between the second air vent and the third air vent, wherein the first air vent is positioned approximately or substantially directly above the third air vent, the third air vent is positioned on the opposite side of the battery pack to the first air vent, and the third air vent is at least partially isolated from the first air vent by a heat sink.
A method comprising: determining, by a computing device, a first encryption secret and a second encryption secret; generating, by the computing device, an encryption key based on an encryption algorithm using the first encryption secret and the second encryption secret; encrypting, by the computing device, a header of a data storage using the encryption key, wherein the header of the data storage stores a volume key used to encrypt at least a payload of the data storage; deleting, by the computing device, the encryption key after encrypting header; and storing, by the computing device, the first encryption secret to a first storage location and the second encryption secret to a second storage location, wherein the first storage location and the second storage location correspond to different network locations. determining, by a computing device, a first encryption secret and a second encryption secret; generating, by the computing device, an encryption key based on an encryption algorithm using the first encryption secret and the second encryption secret; encrypting, by the computing device, a header of a data storage using the encryption key, wherein the header of the data storage stores a volume key used to encrypt at least a payload of the data storage; deleting, by the computing device, the encryption key after encrypting header; and storing, by the computing device, the first encryption secret to a first storage location and the second encryption secret to a second storage location, wherein the first storage location and the second storage location correspond to different network locations.
A method for balancing terminals of an HVAC system, the method comprising: inputting into a computer processing portion of an air flow measuring device predetermined target flows for each terminal; acquiring via the air flow measuring device initially measured air flows through each of the terminals, the initially measured airflows being provided to the computer processing portion; and characterized by the computer processing portion determining, from the initially measured air flows through each terminal, an initial flow error ratio for each terminal, and calculating, based on the initial flow error ratio for each terminal, a flow set point for each terminal; the method being further characterized by adjusting the terminals in the HVAC system to the flow set points according to instructions from the computer processing portion; wherein the flow set points for each terminal correspond to the predetermined target flow for a given terminal after all terminals have been adjusted as instructed. inputting into a computer processing portion of an air flow measuring device predetermined target flows for each terminal; acquiring via the air flow measuring device initially measured air flows through each of the terminals, the initially measured airflows being provided to the computer processing portion; and characterized by the computer processing portion determining, from the initially measured air flows through each terminal, an initial flow error ratio for each terminal, and calculating, based on the initial flow error ratio for each terminal, a flow set point for each terminal; the method being further characterized by adjusting the terminals in the HVAC system to the flow set points according to instructions from the computer processing portion; wherein the flow set points for each terminal correspond to the predetermined target flow for a given terminal after all terminals have been adjusted as instructed.
A corrugated component for the transmission and manipulation of electromagnetic signals with frequencies from 30 GHz to 100 THz, said component comprises an assembly of a plurality of plates (3,4) stacked together in a hollow guiding rod, wherein said plates (3,4) comprise first plates having an aperture shape to form a slot and second plates having an aperture shape to form a ridge said plates being stacked in alternate fashion and the external shape of said plates (3,4) corresponds to the internal shape of the hollow guiding rod.
Plug connector part or system connecting part for a data transmission cable with a plurality of electric conductors, comprising at least one contact element, at least three of the contact elements being guided at least sectionally in parallel, and with a coupling element having a first coupling surface (14.1) made of an electrically conductive material, which is guided in parallel to a first contact element section (K1b), and with a second coupling surface (14.2) which is guided in parallel to a second contact element section (K2b), a third contact element section (K2a) being located between the first and second contact element sections (K1 b, K2b) and at least one connecting part (14.3) connecting the first and second coupling surfaces (14.1, 14.2), characterised in that the electrically conductive coupling element is insulated from the contact elements by an electrically insulating dielectric and influences a cross talk between cable pairs in a controlled manner.
A substantially flat field controlling electrode for providing transcutaneous nerve or muscle stimulation to a user's body, the field controlling electrode comprising: a substantially flat conductive flexible member having a top side and a bottom side; a substantially flat electrically driven master electrode disposed on the top side of the conductive flexible member for generating a current distribution in the conductive flexible member, wherein the master electrode comprises a first conductive ink pattern in the form of a first grid; a substantially flat electrically undriven slave electrode disposed in a spaced apart relationship with the master electrode on the bottom side of the conductive flexible member for focusing the generated current distribution over an area of a user's body, wherein the slave electrode comprises a second conductive ink pattern in the form of a second grid; and a lead in electrical communication with the master electrode, wherein the lead is for connecting the field controlling electrode to external electrical equipment. a substantially flat conductive flexible member having a top side and a bottom side; a substantially flat electrically driven master electrode disposed on the top side of the conductive flexible member for generating a current distribution in the conductive flexible member, wherein the master electrode comprises a first conductive ink pattern in the form of a first grid; a substantially flat electrically undriven slave electrode disposed in a spaced apart relationship with the master electrode on the bottom side of the conductive flexible member for focusing the generated current distribution over an area of a user's body, wherein the slave electrode comprises a second conductive ink pattern in the form of a second grid; and a lead in electrical communication with the master electrode, wherein the lead is for connecting the field controlling electrode to external electrical equipment.
A sensor device comprising: an array sensor in which a plurality of pixels including light-receiving elements for visible light or invisible light are arrayed 1-dimensionally or 2-dimensionally; and an encryption unit (10, 10A) configured to encrypt the analog read signal from each of the plurality of pixels of the array sensor, wherein the encryption unit (10, 10A) generates an analog encryption key based on a photoelectric random number which is a random number obtained based on photoelectric conversion by the array sensor and encrypts the analog read signal based on the generated analog encryption key. an array sensor in which a plurality of pixels including light-receiving elements for visible light or invisible light are arrayed 1-dimensionally or 2-dimensionally; and an encryption unit (10, 10A) configured to encrypt the analog read signal from each of the plurality of pixels of the array sensor, wherein the encryption unit (10, 10A) generates an analog encryption key based on a photoelectric random number which is a random number obtained based on photoelectric conversion by the array sensor and encrypts the analog read signal based on the generated analog encryption key.
A lamp comprising: a light source comprising a light emitting means for light output and an elongate light mixing conductor having a first light coupling side for coupling in the light emitted by the light emitting means and a first light decoupling side opposite to the first light coupling side light, relative to its longitudinal extent, for decoupling the light from the light emitting means, a pre-optical system having a second light coupling side for coupling in the light from the light source as well as a second light decoupling side for defined light decoupling in a main light guidance direction, a decoupling optical system downstream of the pre-optical system with a third light coupling side for coupling the light decoupled from the pre-optical system, as well as a third light decoupling side for defined light output, and a scattering structure arranged between the pre-optical system and the decoupling optical system to scatter the light decoupled from the pre-optical system before the thus scattered light is coupled via the third light coupling side into the decoupling optical system, wherein the scattering structure is movably arranged between the pre-optical system and the decoupling optical system and relative to the pre-optical system in the main light guidance direction, and wherein the light mixing conductor is divided into a plurality of segments each extending between the first light coupling side and the first light decoupling side. a light source comprising a light emitting means for light output and an elongate light mixing conductor having a first light coupling side for coupling in the light emitted by the light emitting means and a first light decoupling side opposite to the first light coupling side light, relative to its longitudinal extent, for decoupling the light from the light emitting means, a pre-optical system having a second light coupling side for coupling in the light from the light source as well as a second light decoupling side for defined light decoupling in a main light guidance direction, a decoupling optical system downstream of the pre-optical system with a third light coupling side for coupling the light decoupled from the pre-optical system, as well as a third light decoupling side for defined light output, and a scattering structure arranged between the pre-optical system and the decoupling optical system to scatter the light decoupled from the pre-optical system before the thus scattered light is coupled via the third light coupling side into the decoupling optical system, wherein the scattering structure is movably arranged between the pre-optical system and the decoupling optical system and relative to the pre-optical system in the main light guidance direction, and wherein the light mixing conductor is divided into a plurality of segments each extending between the first light coupling side and the first light decoupling side.