mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus comprising: at least one latent image carrier; an image forming unit to form a toner image on the at least one latent image carrier based on image data; a transfer body onto which the toner image formed on the at least one latent image carrier is transferred in one or more valid image ranges; a non-image range determiner to determine a non-image range on a surface of the transfer body onto which the toner image is not transferred; a surface detector to detect the surface of the transfer body in the non-image range; and a toner determiner to determine whether or not toner is present in the non-image range based on a result detected by the surface detector, wherein the surface detector is a density detector to detect a toner density on the surface of the transfer body, wherein the toner determiner is configured to compare a value detected in the non-image range by the surface detector to a reference value to determine whether or not toner is present in the non-image range wherein the reference value is a preset toner density value stored in a reference value storage in the image forming apparatus, wherein multiple detection ranges of the surface detector are provided on the transfer body in a direction perpendicular to a direction of rotation of the transfer body, characterized in that the image forming apparatus further comprises a malfunction determiner to identify a type of malfunction based on the number of the detection ranges in which presence of toner is determined. at least one latent image carrier; an image forming unit to form a toner image on the at least one latent image carrier based on image data; a transfer body onto which the toner image formed on the at least one latent image carrier is transferred in one or more valid image ranges; a non-image range determiner to determine a non-image range on a surface of the transfer body onto which the toner image is not transferred; a surface detector to detect the surface of the transfer body in the non-image range; and a toner determiner to determine whether or not toner is present in the non-image range based on a result detected by the surface detector, wherein the surface detector is a density detector to detect a toner density on the surface of the transfer body, wherein the toner determiner is configured to compare a value detected in the non-image range by the surface detector to a reference value to determine whether or not toner is present in the non-image range wherein the reference value is a preset toner density value stored in a reference value storage in the image forming apparatus, wherein multiple detection ranges of the surface detector are provided on the transfer body in a direction perpendicular to a direction of rotation of the transfer body, characterized in that the image forming apparatus further comprises a malfunction determiner to identify a type of malfunction based on the number of the detection ranges in which presence of toner is determined.
Mobile class divider for transversely partitioning the interior space of a cabin of an aircraft that extends in a longitudinal direction and is delimited by ceiling trim panels (11a, 11b), at least two lateral rows of overhead luggage compartments (12a, 12b) extending longitudinally near to said ceiling trim panels (11a, 11b), lateral walls (13a, 13b) and a floor, said divider being intended to be mounted so as to slide along guide rails (16a, 16b) supported by said overhead luggage compartments (12a, 12b), said divider comprising: - a transverse main framework extending, once the mobile class divider has been mounted inside the cabin, on either side of the lateral walls (13a, 13b) of said cabin beneath said overhead luggage compartments (12a, 12b) and said ceiling trim panels (11a, 11b), - at least two guide blocks (15a, 15b) supported by said framework, each guide block (15a, 15b) supporting sliding runners (41a, 41b, 42a, 42b) shaped to fit the guide rails (16a, 16b) so as to allow, once the mobile class divider has been mounted inside said cabin, said divider to slide along the guide rails (16a, 16b) of said cabin, characterised in that said main framework comprises means for adjusting the length thereof so as to be able to adapt the length of said divider to the distance, in the transverse direction, that separates said guide rails of said cabin. - a transverse main framework extending, once the mobile class divider has been mounted inside the cabin, on either side of the lateral walls (13a, 13b) of said cabin beneath said overhead luggage compartments (12a, 12b) and said ceiling trim panels (11a, 11b), - at least two guide blocks (15a, 15b) supported by said framework, each guide block (15a, 15b) supporting sliding runners (41a, 41b, 42a, 42b) shaped to fit the guide rails (16a, 16b) so as to allow, once the mobile class divider has been mounted inside said cabin, said divider to slide along the guide rails (16a, 16b) of said cabin,
A mobile station which communicates with a base station, the mobile station comprising: a transmission unit configured to transmit, to the base station, a reception result of a transmission packet which is transmitted from the base station, as a reception result notification signal according to a Hybrid Automatic Repeat reQuest HARQ process; a reception unit configured to receive, from the base station, a retransmission packet according to the HARQ process; and a switching unit configured to switch, in a predetermined control cycle regarding a discontinuous reception, between a predetermined packet reception period, during which packet reception can be executed, and a predetermined packet reception halt period, during which packet reception is halted, wherein the predetermined control cycle, the predetermined packet reception period, and the predetermined packet reception halt period are predetermined between the base station and the mobile station, the mobile station characterized in that the reception unit is configured to extend the predetermined packet reception period and to receive in the extended packet reception period within the predetermined control cycle, the retransmission packet based on the reception result with respect to a packet received during the predetermined packet reception period. a transmission unit configured to transmit, to the base station, a reception result of a transmission packet which is transmitted from the base station, as a reception result notification signal according to a Hybrid Automatic Repeat reQuest HARQ process; a reception unit configured to receive, from the base station, a retransmission packet according to the HARQ process; and a switching unit configured to switch, in a predetermined control cycle regarding a discontinuous reception, between a predetermined packet reception period, during which packet reception can be executed, and a predetermined packet reception halt period, during which packet reception is halted, wherein the predetermined control cycle, the predetermined packet reception period, and the predetermined packet reception halt period are predetermined between the base station and the mobile station, the mobile station characterized in that the reception unit is configured to extend the predetermined packet reception period and to receive in the extended packet reception period within the predetermined control cycle, the retransmission packet based on the reception result with respect to a packet received during the predetermined packet reception period.
An audio sound reproduction system, comprising: an audio frequency sound transducer system configured to emit an audio sound within a space comprising an audio beamwidth, wherein the audio sound is based on an audio signal; an ultrasonic sound transducer component configured to emit modulated ultrasonic sound energy in an ultrasonic sound direction within an ultrasonic beamwidth (220, 222) that is less than and within the audio beamwidth, wherein the modulated ultrasonic sound energy is based on a modulated ultrasonic sound signal; an object detector configured to detect a presence of at least one object within the audio beamwidth (604, 606) and produce an indication of a respective location of the at least one object; and an ultrasonic signal generator, communicatively coupled to the object detector, configured to determine the ultrasonic sound direction based upon the respective location and to generate the modulated ultrasonic sound signal, the ultrasonic signal generator configured to generate the modulated ultrasonic sound signal such that the modulated ultrasonic sound energy emitted by the ultrasonic sound transducer creates an audible cancellation sound (220, 222) with an amplitude substantially equal to an amplitude of the audio sound at a point within the ultrasonic beamwidth so as to combine with and cancel the audio sound at the point by being substantially out of phase with the audio sound along the ultrasonic sound direction, wherein respective amplitudes of the audible cancellation sound is based upon a distance to the at least one object. an audio frequency sound transducer system configured to emit an audio sound within a space comprising an audio beamwidth, wherein the audio sound is based on an audio signal; an ultrasonic sound transducer component configured to emit modulated ultrasonic sound energy in an ultrasonic sound direction within an ultrasonic beamwidth (220, 222) that is less than and within the audio beamwidth, wherein the modulated ultrasonic sound energy is based on a modulated ultrasonic sound signal; an object detector configured to detect a presence of at least one object within the audio beamwidth (604, 606) and produce an indication of a respective location of the at least one object; and an ultrasonic signal generator, communicatively coupled to the object detector, configured to determine the ultrasonic sound direction based upon the respective location and to generate the modulated ultrasonic sound signal, the ultrasonic signal generator configured to generate the modulated ultrasonic sound signal such that the modulated ultrasonic sound energy emitted by the ultrasonic sound transducer creates an audible cancellation sound (220, 222) with an amplitude substantially equal to an amplitude of the audio sound at a point within the ultrasonic beamwidth so as to combine with and cancel the audio sound at the point by being substantially out of phase with the audio sound along the ultrasonic sound direction, wherein respective amplitudes of the audible cancellation sound is based upon a distance to the at least one object.
A pallet conveyance system of the type comprising: - a first end through which an operator can access the system; - a second opposite end; - a lower conveyor; - a lower base arranged on said lower conveyor for moving thereon between the first end and the second end, and suitable for placing a lower pallet thereon; and - a plurality of machining stations located on the sides of the lower conveyor; characterized in that it further comprises: - an upper base; - overhead conveyance means coupled to the upper base and suitable for conveying said upper base between the first end and the second end, as well as between a high position and a low position, the low position being at the same level as the lower base; and - a control unit to control the movement of the lower base and the upper base, as well as the operation of the machining equipment that will be located at said machining stations. - a first end through which an operator can access the system; - a second opposite end; - a lower conveyor; - a lower base arranged on said lower conveyor for moving thereon between the first end and the second end, and suitable for placing a lower pallet thereon; and - a plurality of machining stations located on the sides of the lower conveyor; - an upper base; - overhead conveyance means coupled to the upper base and suitable for conveying said upper base between the first end and the second end, as well as between a high position and a low position, the low position being at the same level as the lower base; and - a control unit to control the movement of the lower base and the upper base, as well as the operation of the machining equipment that will be located at said machining stations.
The grip, made of a suction cup with a screw embedded in it, a hard overlay with a hollow surface on the side of the suction cup of round shape with a hole in the middle and a nut, which is characterized in that the overlay has a centrally located round dip in its outside surface and one cut of semi-circle section, extending through the center of the centrally located dip and to the periphery of the overlay, and on an edge of the overlay on the side of the suction cup there are at least two projections.
A method, executed by a target base station, for controlling a cell handover, the method comprising: acquiring terminal information from a source base station which is sending the terminal information to the target base station, and after a random access request sent by a terminal that hands over from a source cell covered by the source base station to a target cell covered by the target base station is received, performing, according to the terminal information, beamforming for a random access response corresponding to the random access request, and sending the random access response to the terminal, wherein: the random access response comprises: configuration information of a resource required by the terminal during communication after the terminal hands over from a source cell covered by the source base station to a target cell covered by the target base station; wherein the terminal information comprises: location information of the terminal and/or precoding matrix indication information of the target cell measured by the terminal. acquiring terminal information from a source base station which is sending the terminal information to the target base station, and after a random access request sent by a terminal that hands over from a source cell covered by the source base station to a target cell covered by the target base station is received, performing, according to the terminal information, beamforming for a random access response corresponding to the random access request, and sending the random access response to the terminal, wherein: the random access response comprises: configuration information of a resource required by the terminal during communication after the terminal hands over from a source cell covered by the source base station to a target cell covered by the target base station; wherein the terminal information comprises: location information of the terminal and/or precoding matrix indication information of the target cell measured by the terminal.
A vacuum powered tool that is connectable to a vacuum source and arranged to, in an object engagement position, engage and hold an object as a result of a negative pressure in the tool as well as to resiliently return to an initial position when the negative pressure ceases and, which tool comprises an object handling engagement part, wherein the tool, in a first end, has a fitting to be fixedly received in a vacuum connection implement for fixation of the tool, and in a second end of the tool is formed for air-proof contact with, and provided with, an at least partly flexible and partly collapsible essentially spherical hollow inner geometry having at least one collapsible part, onto which at least partly flexible and at least partly collapsible essentially spherical hollow inner geometry an object handling and engagement appliance is provided and arranged such as to, in the object engagement position, by means of gripping means driven in mutually opposite directions, engage and hold the object as a result of the negative pressure in the at least partly flexible and at least partly collapsible spherical hollow inner geometry having collapsed said at least partly flexible and at least partly collapsible essentially spherical hollow inner geometry at least partly, as well as to resiliently return to the initial position when the negative pressure in the at least partly flexible and at least partly collapsible essentially spherical hollow inner geometry ceases and the at least partly flexible and at least partly collapsible essentially spherical hollow inner geometry is essentially spherical, wherein the vacuum powered tool comprises a bellows mounted air proof to a first support, a second conduit, said first support having a through channel for the supply of negative pressure to the bellows via the second conduit, wherein the bellows has an attachment part, to which attachment part the object handling and engagement appliance is mounted.
A non-naturally occurring microbial organism having a methanol metabolic pathway and an acetyl-CoA pathway, wherein said methanol metabolic pathway comprises a methanol dehydrogenase or a methanol methyltransferase, wherein said methanol dehydrogenase catalyzes conversion of methanol to formaldehyde and wherein said methanol methyltransferase catalyzes conversion of methanol into methyl-THF, wherein said acetyl-CoA pathway comprises: a fructose-6-phosphate phosphoketolase and a phosphotransacetylase, wherein said fructose-6-phosphate phosphoketolase catalyzes conversion of fructose-6-phosphate and phosphate to acetyl-phosphate and erythrose-4-phosphate and wherein said phosphotransacetylase catalyzes conversion of acetyl-phosphate to acetyl-CoA; or a fructose-6-phosphate phosphoketolase, an acetate kinase, and an acetyl-CoA transferase, an acetyl-CoA synthetase, or an acetyl-CoA ligase, wherein said fructose-6-phosphate phosphoketolase catalyzes conversion of fructose-6-phosphate and phosphate to acetyl-phosphate and erythrose-4-phosphate, wherein said acetate kinase catalyzes conversion of acetylphosphate to acetate and wherein said acetyl-CoA transferase, acetyl-CoA synthetase, or acetyl-CoA ligase catalyze conversion of acetate to acetyl-CoA; wherein an enzyme of the methanol metabolic pathway and at least one enzyme of the acetyl-CoA pathway is encoded by an exogenous nucleic acid and is expressed in a sufficient amount to increase the yield of acetyl-CoA per mole of methanol if compared to the yield of acetyl-CoA per mole of methanol in the absence of said enzymes. a fructose-6-phosphate phosphoketolase and a phosphotransacetylase, wherein said fructose-6-phosphate phosphoketolase catalyzes conversion of fructose-6-phosphate and phosphate to acetyl-phosphate and erythrose-4-phosphate and wherein said phosphotransacetylase catalyzes conversion of acetyl-phosphate to acetyl-CoA; or a fructose-6-phosphate phosphoketolase, an acetate kinase, and an acetyl-CoA transferase, an acetyl-CoA synthetase, or an acetyl-CoA ligase, wherein said fructose-6-phosphate phosphoketolase catalyzes conversion of fructose-6-phosphate and phosphate to acetyl-phosphate and erythrose-4-phosphate, wherein said acetate kinase catalyzes conversion of acetylphosphate to acetate and wherein said acetyl-CoA transferase, acetyl-CoA synthetase, or acetyl-CoA ligase catalyze conversion of acetate to acetyl-CoA;
A heatsink assembly comprising: a substrate having an active circuitry, said substrate comprises at least one cavity located adjacent to at least one heat producing element of said active circuitry; a heatsink vessel having an opening sealably attached to said substrate in fluid communication with said at least one cavity; a porous medium at least partially filling said heatsink vessel; and a phase change material contained inside said heatsink vessel, said heatsink vessel and the porous medium configured to: facilitate migration of said PCM by capillary motion from the porous medium contained inside said heatsink vessel into said at least one cavity for absorbing heat from a discrete small region of the substrate in which said at least one heat producing element is located; and facilitate migration of the heated PCM back to the porous medium, to thereby transfer the heat absorbed by said PCM to the heatsink vessel; characterized in that said heatsink assembly comprises a carrier board to which the substrate is attached, said carrier board comprising at least one via configured to communicate between the heatsink vessel and the at least one cavity and facilitate migration of the PCM therethrough from said heatsink vessel into said at least one cavity. a substrate having an active circuitry, said substrate comprises at least one cavity located adjacent to at least one heat producing element of said active circuitry; a heatsink vessel having an opening sealably attached to said substrate in fluid communication with said at least one cavity; a porous medium at least partially filling said heatsink vessel; and a phase change material contained inside said heatsink vessel, said heatsink vessel and the porous medium configured to: facilitate migration of said PCM by capillary motion from the porous medium contained inside said heatsink vessel into said at least one cavity for absorbing heat from a discrete small region of the substrate in which said at least one heat producing element is located; and facilitate migration of the heated PCM back to the porous medium, to thereby transfer the heat absorbed by said PCM to the heatsink vessel; characterized in that said heatsink assembly comprises a carrier board to which the substrate is attached, said carrier board comprising at least one via configured to communicate between the heatsink vessel and the at least one cavity and facilitate migration of the PCM therethrough from said heatsink vessel into said at least one cavity.
An ornamental element for decorating objects comprising: a plurality of decorative bodies each comprising a visible portion and a connecting portion which is opposite to the visible portion; a supporting sheet made of flexible material and comprising a first surface connected to the connecting portion of the decorative bodies in such a way that the decorative bodies form a single body with the supporting sheet, and a second surface which is opposite to the first surface, the decorative bodies being connected to the supporting sheet by means of glue; adhesive substances positioned on the second surface of the supporting sheet so that the ornamental element can be glued to the object to be decorated, characterized in that the supporting sheet is a fabric and it is at least partly made of polyester. a plurality of decorative bodies each comprising a visible portion and a connecting portion which is opposite to the visible portion; a supporting sheet made of flexible material and comprising a first surface connected to the connecting portion of the decorative bodies in such a way that the decorative bodies form a single body with the supporting sheet, and a second surface which is opposite to the first surface, the decorative bodies being connected to the supporting sheet by means of glue; adhesive substances positioned on the second surface of the supporting sheet so that the ornamental element can be glued to the object to be decorated, characterized in that the supporting sheet is a fabric and it is at least partly made of polyester.
A composition comprising an exosome, wherein the exosome is loaded with exogenous protein and/or peptide, wherein the exogenous protein or peptide is an antibody or an antigen-binding fragment thereof.