mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a solid-state digital detector of incident radiation comprising a photosensitive sensor and a scintillator, comprising: a. a step of growing, on a first substrate, a scintillating substance from the first substrate, capable of converting the incident radiation into a second radiation to which the sensor is sensitive, the scintillating substance comprising an upstream front face in the direction of propagation of the incident radiation, through which the incident radiation passes, and a downstream front face in the direction of propagation of the incident radiation, opposite the upstream front face; b. a step of holding the scintillator at the downstream front face of the scintillating substance; c. a step of separating the first substrate from the scintillator, characterised in that the step of separating the first substrate from the scintillator comprises a step of removing a first region from the scintillator which has a thickness less than a predefined nominal thickness. a. a step of growing, on a first substrate, a scintillating substance from the first substrate, capable of converting the incident radiation into a second radiation to which the sensor is sensitive, the scintillating substance comprising an upstream front face in the direction of propagation of the incident radiation, through which the incident radiation passes, and a downstream front face in the direction of propagation of the incident radiation, opposite the upstream front face; b. a step of holding the scintillator at the downstream front face of the scintillating substance; c. a step of separating the first substrate from the scintillator,
An apparatus, comprising: an image forming apparatus having a main body, the main body including one or more contact terminals; a developing cartridge detachably supported in the main body, developing cartridge being receivable into the main body in a first direction; a toner cartridge detachably supported in the developing cartridge, the toner cartridge being receivable into the developing cartridge in a second direction perpendicular to the first direction (Al), the toner cartridge including an exposed surface that is at least partially exposed outside the developing cartridge when the toner cartridge is received in the developing cartridge; and a memory accessible through one or more access terminals (131, 132, 133, 134) arranged on the exposed surface; characterized in that the one or more access terminals (131,132,133,134) of the memory are arranged to contact the one or more contact terminals of the main body so as establish signal communication between the memory and a memory accessing unit; wherein the exposed surface comprises a first surface, on which the one or more access terminals (131, 132, 133, 134) are supported, and an oblique surface formed upstream of the first surface with respect to the first direction so that when the developing cartridge is arranged to be mounted in the main body the oblique surface absorbs an impact between the one or more access terminals and the one or more contact terminals by coming into pressing contact with the one or more contact terminals first before the one or more access terminals. an image forming apparatus having a main body, the main body including one or more contact terminals; a developing cartridge detachably supported in the main body, developing cartridge being receivable into the main body in a first direction; a toner cartridge detachably supported in the developing cartridge, the toner cartridge being receivable into the developing cartridge in a second direction perpendicular to the first direction (Al), the toner cartridge including an exposed surface that is at least partially exposed outside the developing cartridge when the toner cartridge is received in the developing cartridge; and a memory accessible through one or more access terminals (131, 132, 133, 134) arranged on the exposed surface; characterized in that the one or more access terminals (131,132,133,134) of the memory are arranged to contact the one or more contact terminals of the main body so as establish signal communication between the memory and a memory accessing unit; wherein the exposed surface comprises a first surface, on which the one or more access terminals (131, 132, 133, 134) are supported, and an oblique surface formed upstream of the first surface with respect to the first direction so that when the developing cartridge is arranged to be mounted in the main body the oblique surface absorbs an impact between the one or more access terminals and the one or more contact terminals by coming into pressing contact with the one or more contact terminals first before the one or more access terminals.
A computing device comprising: a contact region provided on a surface of the computing device, the contact region including a first dimension that extends along a first axis and a second dimension that extends along a second axis; wherein the contact region is contact sensitive and operable to detect position or movement information about a user finger along a direction of at least the first axis; a biometric sensor feature that is integrated with the contact region and to detect one or more characteristics of the finger as the finger is being moved along the direction of the first axis; a force detector to detect applied pressure on the contact region; control logic that is coupled to or integrated with the contact region and the biometric sensor feature to use the one or more detected characteristics of the finger to approve or disapprove the user; and detect input from the contact region corresponding to the finger being moved along the direction of at least the first axis; and wherein the control logic is coupled to or integrated with the force detector to receive input from the force detector corresponding to the finger being pressed against the contact region with an applied pressure of a given magnitude. a contact region provided on a surface of the computing device, the contact region including a first dimension that extends along a first axis and a second dimension that extends along a second axis; wherein the contact region is contact sensitive and operable to detect position or movement information about a user finger along a direction of at least the first axis; a biometric sensor feature that is integrated with the contact region and to detect one or more characteristics of the finger as the finger is being moved along the direction of the first axis; a force detector to detect applied pressure on the contact region; control logic that is coupled to or integrated with the contact region and the biometric sensor feature to use the one or more detected characteristics of the finger to approve or disapprove the user; and detect input from the contact region corresponding to the finger being moved along the direction of at least the first axis; and wherein the control logic is coupled to or integrated with the force detector to receive input from the force detector corresponding to the finger being pressed against the contact region with an applied pressure of a given magnitude.
A shoulder joint prosthesis comprising two bearing bodies (1, 2; 11, 12) which slide on one another and which are connectable to the upper arm by a shaft or to the shoulder bone by a platform respectively, characterized in that the connection to the shaft takes place by a non-rotationally symmetrical conical body with a self-locking seat, with the periphery of said non-rotationally symmetrical conical body forming a shape match with a counter shape in the shaft, which counter shape encompasses the conical body in a two-dimensional manner, said shape match being rotationally fixed with respect to a longitudinal axis and being wedged by the conicity, so that the connection is releasable and can repeatedly be fixed in the same angular position.
An actuating device intended to drive at least one pump of a system for pumping fuel from a fuel circuit towards a fuel injection device of an engine of an aircraft, the actuating device including a motor rotating electric machine, a generator rotating electric machine, an electrical energy inverter, a switching member and a control member, the motor rotating electric machine comprising a first rotor, intended to be mechanically coupled to the at least one pump for actuation thereof, and a first stator comprising at least one input stator winding, the generator rotating electric machine comprising a second rotor, intended to be mechanically coupled to a shaft of the engine forming a drive shaft, and a second stator comprising at least one output stator winding, each output stator winding being associated to a respective input stator winding of the motor rotating electric machine, the inverter comprising at least one output, each output of the inverter being associated to a respective input stator winding of the motor rotating electric machine, characterized in that the control member is configured to receive speed information relating to a speed of the engine, and to control the switching member in order to selectively connect each input stator winding of the motor rotating electric machine: - to the corresponding output stator winding if the speed of the engine is higher than or equal to a predetermined speed; - at the corresponding output of the inverter, otherwise. the motor rotating electric machine comprising a first rotor, intended to be mechanically coupled to the at least one pump for actuation thereof, and a first stator comprising at least one input stator winding, the generator rotating electric machine comprising a second rotor, intended to be mechanically coupled to a shaft of the engine forming a drive shaft, and a second stator comprising at least one output stator winding, each output stator winding being associated to a respective input stator winding of the motor rotating electric machine, the inverter comprising at least one output, each output of the inverter being associated to a respective input stator winding of the motor rotating electric machine, characterized in that the control member is configured to receive speed information relating to a speed of the engine, and to control the switching member in order to selectively connect each input stator winding of the motor rotating electric machine: - to the corresponding output stator winding if the speed of the engine is higher than or equal to a predetermined speed; - at the corresponding output of the inverter, otherwise. - to the corresponding output stator winding if the speed of the engine is higher than or equal to a predetermined speed; - at the corresponding output of the inverter, otherwise.
A battery module comprising: a plurality of battery cells aligned in a first direction; first and second end plates (110, 120) respectively arranged at outer sides of the plurality of battery cells; and a bottom plate supporting bottom surfaces of the battery cells and comprising at least a portion thereof including a pattern structure including at least one recessed portion and a protruding portion surrounding an outer circumference of the at least one recessed portion; wherein the bottom plate has at least one opening formed therethrough, wherein the at least one opening is formed through the at least one recessed portion of the pattern structure; characterised by a barrier interposed between neighboring ones of the plurality of battery cells such that a space is provided between the neighboring battery cells, wherein the at least one opening is at a location corresponding to a position of the barrier. a plurality of battery cells aligned in a first direction; first and second end plates (110, 120) respectively arranged at outer sides of the plurality of battery cells; and a bottom plate supporting bottom surfaces of the battery cells and comprising at least a portion thereof including a pattern structure including at least one recessed portion and a protruding portion surrounding an outer circumference of the at least one recessed portion; wherein the bottom plate has at least one opening formed therethrough, wherein the at least one opening is formed through the at least one recessed portion of the pattern structure; characterised by a barrier interposed between neighboring ones of the plurality of battery cells such that a space is provided between the neighboring battery cells, wherein the at least one opening is at a location corresponding to a position of the barrier.
A method of multiplexing a first numerology with a second numerology, comprising: transmitting symbols of the first numerology in one set of frequency tones of a frequency division multiplexed transmitter; transmitting symbols of the second numerology in a second set of frequency tones of the frequency division multiplexed transmitter, a ratio of spacing between tones of the first numerology tones and the second numerology tones being an integer number K that is related to the ratio of the number of symbols transmitted by the first numerology and the second numerology in a time period; and transmitting symbols in a guard band located between the first numerology tones and second numerology tones, the symbols in the guard band being transmitted in a waveform that can be interpreted either as the first numerology or as the second numerology. transmitting symbols of the first numerology in one set of frequency tones of a frequency division multiplexed transmitter; transmitting symbols of the second numerology in a second set of frequency tones of the frequency division multiplexed transmitter, a ratio of spacing between tones of the first numerology tones and the second numerology tones being an integer number K that is related to the ratio of the number of symbols transmitted by the first numerology and the second numerology in a time period; and transmitting symbols in a guard band located between the first numerology tones and second numerology tones, the symbols in the guard band being transmitted in a waveform that can be interpreted either as the first numerology or as the second numerology.
An image heating apparatus comprising: a heater including a substrate and two heat generating elements (301-1, 301-2) provided on the substrate; a supporting member for supporting said heater; a high heat-conductive member sandwiched between said heater and said supporting member, wherein a recording material on which an image is formed is heated by heat from said heater, wherein said supporting member has a bottom region where said supporting member supports said heater, wherein said bottom region includes two first regions (E1; E11, E13), where said supporting member contacts said high heat-conductive member so as to apply pressure between said heater and said high heat-conductive member, and a second region (E2; E22, E23), where said supporting member is recessed from said high heat-conductive member relative to the two first regions (E1; E11, E13), and wherein, with respect to a movement direction of the recording material, at least parts of the two first regions (E1; E11, E13) overlap with two regions where the two heat generating elements (301-1, 301-2) are provided, respectively, and at least a part of the second region (E2; E22, E23) overlaps with a region between the two heat generating elements (301-1, 301-2). a heater including a substrate and two heat generating elements (301-1, 301-2) provided on the substrate; a supporting member for supporting said heater; a high heat-conductive member sandwiched between said heater and said supporting member, wherein a recording material on which an image is formed is heated by heat from said heater, wherein said supporting member has a bottom region where said supporting member supports said heater, wherein said bottom region includes two first regions (E1; E11, E13), where said supporting member contacts said high heat-conductive member so as to apply pressure between said heater and said high heat-conductive member, and a second region (E2; E22, E23), where said supporting member is recessed from said high heat-conductive member relative to the two first regions (E1; E11, E13), and wherein, with respect to a movement direction of the recording material, at least parts of the two first regions (E1; E11, E13) overlap with two regions where the two heat generating elements (301-1, 301-2) are provided, respectively, and at least a part of the second region (E2; E22, E23) overlaps with a region between the two heat generating elements (301-1, 301-2).
Collection container arranged for collecting an object of a certain constitution from the ground by passing the object through a resilient grid (10, 11) defining a section of the collection container envelope and operable to be forced against the object to thereby, locally change a pre-set mesh-width or opening angle of the grid (10, 11) by local resilient grid deformation generating a penetration passage for penetrating therethrough the object into the collection container, wherein the grid (10, 11) comprising a first grid structure and a second grid structure, the first and second grid structure (10, 11) being configured and attached to be repositionable relative to each other such that the mesh-width can be set to at least a maximal and minimal mesh-width or opening angle by repositioning at least one of the first and second grid structure, characterized in that, the collection container comprising at least one axial hub for pivotably coupling the collection container to a support, wherein the hub comprises a first hub component associated with the first grid structure, and a second hub component associated with the second grid structure, and wherein the first and second hub component being supported rotatable relative to each other such that setting the mesh-width or opening angle involves pivoting movement of the first hub component relative to the second hub component.
An inkjet head, comprising: a head chip that includes a channel row in which a driving wall including a piezoelectric element and a channel are alternately arranged side by side and that an outlet and an inlet of the channel are arranged respectively on a front face and a rear face and a driving electrode is formed on a wall face of the driving wall facing inside the channel, wherein a lead-out electrode (14, 14A to 14D) that is electrically connected to the driving electrode in the channel is formed on the rear face of the head chip for every channel and a wiring (32, 32A, 32B, 62A, 62B) of an FPC (3, 3', 6) is electrically connected to the lead-out electrode, and the wiring of the FPC is directly electrically connected to the lead-out electrode so as to thereby allow a direct electric connection part between the lead-out electrode and the wiring to be formed on the rear face of the head chip, and the FPC is bent from the vicinity of an electric connection part between the lead-out electrode and the wiring and extends in a rearward direction of the head chip, and includes a space in the rear of the electric connection part. a head chip that includes a channel row in which a driving wall including a piezoelectric element and a channel are alternately arranged side by side and that an outlet and an inlet of the channel are arranged respectively on a front face and a rear face and a driving electrode is formed on a wall face of the driving wall facing inside the channel, wherein a lead-out electrode (14, 14A to 14D) that is electrically connected to the driving electrode in the channel is formed on the rear face of the head chip for every channel and a wiring (32, 32A, 32B, 62A, 62B) of an FPC (3, 3', 6) is electrically connected to the lead-out electrode, and the wiring of the FPC is directly electrically connected to the lead-out electrode so as to thereby allow a direct electric connection part between the lead-out electrode and the wiring to be formed on the rear face of the head chip, and the FPC is bent from the vicinity of an electric connection part between the lead-out electrode and the wiring and extends in a rearward direction of the head chip, and includes a space in the rear of the electric connection part.
A method for manufacturing a highly porous, stable metal oxide, wherein the metal oxide is an aluminium oxide catalyst support, comprising: mixing an aluminium alkoxide with water to form a solvent deficient precursor mixture; allowing the aluminium alkoxide and the water to react in the solvent deficient precursor mixture to form an intermediate hydroxide product; causing the intermediate hydroxide product to form intermediate nanoparticles; and calcining the intermediate nanoparticles to yield a stable aluminium oxide having a pore structure. mixing an aluminium alkoxide with water to form a solvent deficient precursor mixture; allowing the aluminium alkoxide and the water to react in the solvent deficient precursor mixture to form an intermediate hydroxide product; causing the intermediate hydroxide product to form intermediate nanoparticles; and calcining the intermediate nanoparticles to yield a stable aluminium oxide having a pore structure.
A tire comprising: a circular tire frame member that is formed using a frame resin material; and a reinforcing cord member that is disposed at an outer circumference of the tire frame member, that is configured by a reinforcing cord covered with a resin covering layer that is wound along a tire circumferential direction so as to form a spiral shape, that is bonded to the tire frame member, characterised in that in the tire axial direction adjacent portions of the reinforcing cord member are bonded together. a circular tire frame member that is formed using a frame resin material; and a reinforcing cord member that is disposed at an outer circumference of the tire frame member, that is configured by a reinforcing cord covered with a resin covering layer that is wound along a tire circumferential direction so as to form a spiral shape, that is bonded to the tire frame member, characterised in that in the tire axial direction adjacent portions of the reinforcing cord member are bonded together.
Foaming unit for producing foam from a mixture of gas and liquid, comprising a housing, a slider, a foaming element, an inlet for the mixture of gas and liquid, and an outlet, wherein the foaming element is arranged hydraulically between the inlet and the outlet, characterized in that an active volume of the foaming element can be adjusted by changing the relative position of a control edge and an end face of the foaming element.
A downhole compressor, comprising: a casing disposed inside a well; a rotor built inside the casing; and an impeller disposed at the rotor, characterised in that an electromagnetic control unit is configured to electromagnetically control a relative position of the rotor inside the casing is provided. a casing disposed inside a well; a rotor built inside the casing; and an impeller disposed at the rotor, characterised in that an electromagnetic control unit is configured to electromagnetically control a relative position of the rotor inside the casing is provided.
A polyvinyl chloride composition, characterized in comprising the following components based on parts by weight: (a) 100 parts polyvinyl chloride resin, and (b) 2-16 parts toughening modifier; wherein said toughening modifier is rubber powders with an elongation at break greater than 2201% and a weight percentage of chlorine that is 5-45wt%; said elongation at break is tested by GB/T528-2009; the weight percentage of chlorine is tested by the method A of GB/T7139-2002. (a) 100 parts polyvinyl chloride resin, and (b) 2-16 parts toughening modifier;