mhurhangee/patent-ind-claim-en huggingface dataset:
A sheet loading device for an image forming apparatus being equipped with an image forming section (GK) that forms an image on a sheet, the sheet loading device comprising: a frame ; and a loading plate located on an upper surface portion of the frame , the loading plate , in association with the upper surface portion , allowing the sheet to be loaded thereon, the loading plate includes a sheet loading member that supports a downstream side of the sheet in a sheet feed direction, and is able to be raised and lowered with respect to a sheet transportation path (L), and a cover member that is located between the sheet loading member and the upper surface portion and covers a gap formed between the sheet loading member and the upper surface portion when the sheet loading member is in a raised position; and the cover member is a plate-shaped member that extends in a sheet width direction and has a first end portion and a second end portion respectively located on an upstream side and the downstream side in the sheet feed direction, characterized in that the first end portion is rotatably supported by the frame , and a lower surface of the second end portion overlaps an upper surface of an end portion of the sheet loading member . a frame ; and a loading plate located on an upper surface portion of the frame , the loading plate , in association with the upper surface portion , allowing the sheet to be loaded thereon, the loading plate includes a sheet loading member that supports a downstream side of the sheet in a sheet feed direction, and is able to be raised and lowered with respect to a sheet transportation path (L), and a cover member that is located between the sheet loading member and the upper surface portion and covers a gap formed between the sheet loading member and the upper surface portion when the sheet loading member is in a raised position; and the cover member is a plate-shaped member that extends in a sheet width direction and has a first end portion and a second end portion respectively located on an upstream side and the downstream side in the sheet feed direction, characterized in that
A ferritic stainless steel sheet having a sheet thickness t of 5.0 to 12.0 mm, comprising a chemical composition consisting of, in mass percent: C: 0.001 to 0.010%; Si: 0.01 to 1.0%; Mn: 0.01 to 1.0%; P: 0.04% or less; S: 0.010% or less; Cr: 10.0 to 20.0%; Ni: 0.01 to 1.0%; Ti: 0.10 to 0.30%; V: 0.01 to 0.40%; Al: 0.005 to 0.3%; N: 0.001 to 0.02%; B: 0 to 0.0030%; Mo: 0 to 2.0%; Cu: 0 to 0.3%; Mg: 0 to 0.0030%; Sn: 0 to 0.1%; Sb: 0 to 0.1%; Zr: 0 to 0.1%; Ta: 0 to 0.1%; Nb: 0 to 0.1%; Hf: 0 to 0.1%; W: 0 to 0.1%; Co: 0 to 0.2%; Ca: 0 to 0.0030%; REM: 0 to 0.05%; Ga: 0 to 0.1%; and optionally, Bi: 0.001 to 0.1%, with the balance being Fe and unavoidable impurities, wherein in a steel micro-structure, on a cross section parallel to a rolling direction, an area ratio of structures each satisfying: major grain diameter / minor grain diameter being 5.0 or more is 90% or more, and an average minor grain diameter of the structures is 100 μm or less wherein the area ratio of structures each satisfying: major grain diameter / minor grain diameter being 5.0 or more is determined as described in the description, and the average minor grain diameter of the structures is determined as described in the description. C: 0.001 to 0.010%; Si: 0.01 to 1.0%; Mn: 0.01 to 1.0%; P: 0.04% or less; S: 0.010% or less; Cr: 10.0 to 20.0%; Ni: 0.01 to 1.0%; Ti: 0.10 to 0.30%; V: 0.01 to 0.40%; Al: 0.005 to 0.3%; N: 0.001 to 0.02%; B: 0 to 0.0030%; Mo: 0 to 2.0%; Cu: 0 to 0.3%; Mg: 0 to 0.0030%; Sn: 0 to 0.1%; Sb: 0 to 0.1%; Zr: 0 to 0.1%; Ta: 0 to 0.1%; Nb: 0 to 0.1%; Hf: 0 to 0.1%; W: 0 to 0.1%; Co: 0 to 0.2%; Ca: 0 to 0.0030%; REM: 0 to 0.05%; Ga: 0 to 0.1%; and optionally, Bi: 0.001 to 0.1%, with the balance being Fe and unavoidable impurities, wherein in a steel micro-structure, on a cross section parallel to a rolling direction, an area ratio of structures each satisfying: major grain diameter / minor grain diameter being 5.0 or more is 90% or more, and an average minor grain diameter of the structures is 100 μm or less wherein the area ratio of structures each satisfying: major grain diameter / minor grain diameter being 5.0 or more is determined as described in the description, and the average minor grain diameter of the structures is determined as described in the description.
A transport container for receiving a plurality of plate-shaped objects , in particular glass plates, comprising a cuboid frame and two receiving elements held in the frame , wherein the frame has a loading opening extending in a height direction and a transverse direction , wherein the two receiving elements are spaced apart from one another by a distance (A) in the transverse direction , wherein at least one of the receiving elements is configured to be variably positionable in relation to the frame along the transverse direction in order to automatically vary the distance (A) between the receiving elements in an operating state, characterised in that the receiving elements have a plurality of receiving grooves offset in the height direction , wherein the receiving grooves extend in a depth direction normal to the height direction and transverse direction and are open towards the loading opening , and wherein the receiving grooves of the two receiving elements are in each case arranged in pairs so that a plate-shaped object can be supported by a pair of receiving grooves respectively, and in that the transport container has a data carrier for storing an actual value (A ist ) of the distance (A), which data carrier can be read and/or written to by a transmitting and receiving device of a loading station . wherein the frame has a loading opening extending in a height direction and a transverse direction , wherein the two receiving elements are spaced apart from one another by a distance (A) in the transverse direction , wherein at least one of the receiving elements is configured to be variably positionable in relation to the frame along the transverse direction in order to automatically vary the distance (A) between the receiving elements in an operating state, characterised in that the receiving elements have a plurality of receiving grooves offset in the height direction , wherein the receiving grooves extend in a depth direction normal to the height direction and transverse direction and are open towards the loading opening , and wherein the receiving grooves of the two receiving elements are in each case arranged in pairs so that a plate-shaped object can be supported by a pair of receiving grooves respectively, and in that the transport container has a data carrier for storing an actual value (A ist ) of the distance (A), which data carrier can be read and/or written to by a transmitting and receiving device of a loading station .
Photonic chip comprising a light guide layer supported by a substrate and covered with an encapsulation layer , the photonic chip having a front face (F1) on the side of the encapsulation layer and a back face (F2) on the side of the substrate , the light guide layer including a light guide structure comprising a waveguide and optically coupled to a vertical coupler configured to receive light from the waveguide and to form a light beam directed towards either the front face or the back face, the photonic chip also comprising a collimation structure and an arrangement of one or several reflecting structures , each on either the front face or the back face, said arrangement being made so as to propagate light between the vertical coupler and the collimation structure along an optical path with at least one fold, the photonic chip being characterised in that the collimation structure is at least partly formed in the light guide layer .
A cooking appliance , comprising a pot body , an inner pot disposed in the pot body and an upper cover covering the pot body , the cooking appliance further comprising: a main control device disposed on one of the pot body and the upper cover , characterized in that the cooking appliance further comprises a communication device comprising a first sensing device and a second sensing device which are correspondingly disposed, the first sensing device being disposed on the one of the pot body and the upper cover , and being electrically connected to the main control device , the first sensing device comprising a first coil , the second sensing device being disposed on the pot body or on the upper cover , the second sensing device comprising a second coil , and the second coil being capable of coupling with the first coil ; and a temperature sensor which is electrically connected to the second sensing device via a first wire , and can be placed in the inner pot . a main control device disposed on one of the pot body and the upper cover , characterized in that the cooking appliance further comprises a communication device comprising a first sensing device and a second sensing device which are correspondingly disposed, the first sensing device being disposed on the one of the pot body and the upper cover , and being electrically connected to the main control device , the first sensing device comprising a first coil , the second sensing device being disposed on the pot body or on the upper cover , the second sensing device comprising a second coil , and the second coil being capable of coupling with the first coil ; and a temperature sensor which is electrically connected to the second sensing device via a first wire , and can be placed in the inner pot .
An apparatus to be included in an evolved Node B, "eNB", the apparatus comprising:processing circuitry configured to determine a first transmission power associated with a first resource element, further configured to generate an indication of the first transmission power, and further configured to control transmission of a signal to a user equipment, "UE", that includes the first resource element associated with the first transmission power; and transmitter circuitry , coupled with the processing circuitry , configured to transmit an indication of the first transmission power to the UE for interference cancellation by the UE; characterized in that the processing circuitry is further configured to determine a fluctuation range, in decibels, associated with the signal, and further wherein the transmitter circuitry is further configured to transmit an indication of the fluctuation range to the UE.
An apparatus configured to encode or decode video information, the apparatus comprising: a memory configured to store video information associated with a reference layer and an enhancement layer, the reference layer comprising a reference layer (RL) picture having multiple slices, and the enhancement layer comprising an enhancement layer (EL) picture corresponding to the RL picture; and a processor in communication with the memory, the processor configured to: generate an inter-layer reference picture (ILRP) by upsampling the RL picture, the ILRP having a single slice associated therewith; set slice type and reference picture list information of the single slice of the ILRP equal to corresponding slice type and reference picture list information of one of the multiple slices of the RL picture; and use the ILRP to code at least a portion of the EL picture. a memory configured to store video information associated with a reference layer and an enhancement layer, the reference layer comprising a reference layer (RL) picture having multiple slices, and the enhancement layer comprising an enhancement layer (EL) picture corresponding to the RL picture; and a processor in communication with the memory, the processor configured to: generate an inter-layer reference picture (ILRP) by upsampling the RL picture, the ILRP having a single slice associated therewith; set slice type and reference picture list information of the single slice of the ILRP equal to corresponding slice type and reference picture list information of one of the multiple slices of the RL picture; and use the ILRP to code at least a portion of the EL picture. generate an inter-layer reference picture (ILRP) by upsampling the RL picture, the ILRP having a single slice associated therewith; set slice type and reference picture list information of the single slice of the ILRP equal to corresponding slice type and reference picture list information of one of the multiple slices of the RL picture; and use the ILRP to code at least a portion of the EL picture.
A method for generating optical stimulation signals (A 1 , ..., A N ) for optical stimulation contacts in a cochlear implant array , the method comprising: transforming an input sound signal into a plurality of band pass signals (B 1 , ..., B N ) each representing an associated band of audio frequencies, wherein each band pass signal comprises a plurality of signal components including: i. an envelope component characterizing loudness of the band pass signal, and ii. a fine structure component characterizing temporal details of the band pass signal; half wave rectifying one or more of the signal components of each band pass signal (B 1 , ..., B N ) to remove negative phase signals; determining signal slope corresponding to rate of change of the rectified one or more signal components; generating a plurality of constant-rate optical stimulation pulses (S 1 , ..., S N ) for one or more given band signals only when the rectified one or more signal components has a positive signal slope; and amplitude modulating the optical stimulation pulses (S 1 , ..., S N ) based on the corresponding fine structure or envelope component to develop the optical stimulation signals (A 1 , ..., A N ) for delivery by the optical stimulation contacts to adjacent auditory neural tissue. transforming an input sound signal into a plurality of band pass signals (B 1 , ..., B N ) each representing an associated band of audio frequencies, wherein each band pass signal comprises a plurality of signal components including: i. an envelope component characterizing loudness of the band pass signal, and ii. a fine structure component characterizing temporal details of the band pass signal; i. an envelope component characterizing loudness of the band pass signal, and ii. a fine structure component characterizing temporal details of the band pass signal; half wave rectifying one or more of the signal components of each band pass signal (B 1 , ..., B N ) to remove negative phase signals; determining signal slope corresponding to rate of change of the rectified one or more signal components; generating a plurality of constant-rate optical stimulation pulses (S 1 , ..., S N ) for one or more given band signals only when the rectified one or more signal components has a positive signal slope; and amplitude modulating the optical stimulation pulses (S 1 , ..., S N ) based on the corresponding fine structure or envelope component to develop the optical stimulation signals (A 1 , ..., A N ) for delivery by the optical stimulation contacts to adjacent auditory neural tissue.
A method, performed by a wireless communication network , for supporting cell selection and/or cell reselection for a wireless communication device (120; 600) operative in the wireless communication network , wherein the method comprises: - obtaining (201; 301) information regarding resources associated with a potential target cell for the wireless communication device (120; 600), which resources would be associated with the wireless communication device (120; 600) if the wireless communication device (120; 600) would camp on said potential target cell , - determining (202; 302), based on said obtained information, an indicator, and - sending (203; 303) the determined indicator to the wireless communication device (120; 600), wherein the method is characterized by that the indicator being determined and sent is indicating to the wireless communication device (120; 600) how to evaluate said potential target cell regarding cell selection and/or cell reselection. - obtaining (201; 301) information regarding resources associated with a potential target cell for the wireless communication device (120; 600), which resources would be associated with the wireless communication device (120; 600) if the wireless communication device (120; 600) would camp on said potential target cell , - determining (202; 302), based on said obtained information, an indicator, and - sending (203; 303) the determined indicator to the wireless communication device (120; 600),
Implant having a first implant part and a second implant part , wherein the first and the second implant part are connected to one another in a connecting position by way of a screw connection comprising a nut , wherein the nut is configured in the form of a medical nut , which defines a longitudinal axis and has an internal thread and an external polygon , characterized in that the nut comprises at least one inner part and at least one outer part at least partially, in particular completely or substantially completely, surrounding the inner part , in that the at least one inner part comprises the internal thread , in that the at least one outer part comprises the external polygon , in that the nut comprises a torque limiting device , which is configured in such a way that the at least one outer part and the at least one inner part are non-rotatable relative to one another in a tightening direction when a torque acting in the tightening direction on the at least one outer part is smaller than a limit torque, in that the at least one outer part and the at least one inner part are rotatable relative to one another in the tightening direction when a torque acting in the tightening direction on the at least one outer part corresponds at least to the limit torque, in that the at least one inner part and the at least one outer part are non-releasably coupled to one another, in that the medical nut is of two-part configuration and comprises only one single inner part and one single outer part , or in that the medical nut is of three-part configuration and comprises only one single inner part and two outer parts .
A compound of Formula 1: wherein R 1 , Z 1 , s, f, Z 2 and J are defined as follows, and wherein when J is a phenyl ring, the ring is connected to Z 2 and the oxadiazole ring in a 1,4-orientation: R 1 Z 1 s f Z 2 J 2-Cl-Ph direct bond 2 0 NH phenyl Cl 2 CH direct bond 1 0 direct bond phenyl Me direct bond 2 0 NH phenyl Ph direct bond 2 0 NH phenyl Et direct bond 2 0 CH 2 phenyl Me direct bond 2 0 CH 2 phenyl (MeO) 2 CHCH 2 NH 2 0 direct bond phenyl Ph direct bond 2 0 N(Me) phenyl CH 3 C(=O) N(Me) 2 0 direct bond phenyl 3,5-di-Cl-Ph NH 2 0 direct bond phenyl CH 2 =CHCH 2 direct bond 2 0 direct bond Ph direct bond 2 0 NH 4-EtOC(=O)-Ph NH 2 0 direct bond phenyl (Me) 2 CHCH 2 direct bond 2 0 direct bond 4-F-Ph direct bond 2 0 NH 4-Me-Ph direct bond 2 0 NH 2-Cl-Ph direct bond 2 0 NH 4-Cl-Ph direct bond 2 0 NH 4-MeO-Ph direct bond 2 0 NH CH 3 direct bond 2 0 NHCH 2 phenyl Ph direct bond 2 0 NHCH 2 phenyl 3-Cl-Ph direct bond 2 0 NH phenyl 2-CF 3 -Ph direct bond 2 0 NH phenyl Me direct bond 2 0 O phenyl CH 3 C(=O) N(OMe) 2 0 direct bond phenyl CH 3 C(=O) N(Et) 2 0 direct bond phenyl Me direct bond 2 0 direct bond phenyl Me direct bond 1 0 direct bond phenyl wherein the bond of the pyridine J projecting to the left is bonded to Z 2 , and the bond projecting to the right is bonded to the oxadiazole ring in Formula 1. wherein R 1 , Z 1 , s, f, Z 2 and J are defined as follows, and wherein when J is a phenyl ring, the ring is connected to Z 2 and the oxadiazole ring in a 1,4-orientation: R 1 Z 1 s f Z 2 J 2-Cl-Ph direct bond 2 0 NH phenyl Cl 2 CH direct bond 1 0 direct bond phenyl Me direct bond 2 0 NH phenyl Ph direct bond 2 0 NH phenyl Et direct bond 2 0 CH 2 phenyl Me direct bond 2 0 CH 2 phenyl (MeO) 2 CHCH 2 NH 2 0 direct bond phenyl Ph direct bond 2 0 N(Me) phenyl CH 3 C(=O) N(Me) 2 0 direct bond phenyl 3,5-di-Cl-Ph NH 2 0 direct bond phenyl CH 2 =CHCH 2 direct bond 2 0 direct bond Ph direct bond 2 0 NH 4-EtOC(=O)-Ph NH 2 0 direct bond phenyl (Me) 2 CHCH 2 direct bond 2 0 direct bond 4-F-Ph direct bond 2 0 NH 4-Me-Ph direct bond 2 0 NH 2-Cl-Ph direct bond 2 0 NH 4-Cl-Ph direct bond 2 0 NH 4-MeO-Ph direct bond 2 0 NH CH 3 direct bond 2 0 NHCH 2 phenyl Ph direct bond 2 0 NHCH 2 phenyl 3-Cl-Ph direct bond 2 0 NH phenyl 2-CF 3 -Ph direct bond 2 0 NH phenyl Me direct bond 2 0 O phenyl CH 3 C(=O) N(OMe) 2 0 direct bond phenyl CH 3 C(=O) N(Et) 2 0 direct bond phenyl Me direct bond 2 0 direct bond phenyl Me direct bond 1 0 direct bond phenyl wherein the bond of the pyridine J projecting to the left is bonded to Z 2 , and the bond projecting to the right is bonded to the oxadiazole ring in Formula 1.
A direct current circuit breaker device having a first current path of a first electrical polarity from a first supply connection of the direct current circuit breaker device to a first load connection of the direct current circuit breaker device , and having a second current path of a second electrical polarity from a second supply connection of the direct current circuit breaker device to a second load connection of the direct current circuit breaker device , wherein a mechanical bypass switch is arranged in the first current path or the second current path , wherein the bypass switch comprises at least one bypass switch excitation coil , wherein a first semiconductor circuit arrangement of the direct current circuit breaker device is connected in parallel with the bypass switch , wherein an electronic control unit of the direct current circuit breaker device is configured to control the first semiconductor circuit arrangement , wherein the direct current circuit breaker device comprises a second semiconductor circuit arrangement controlled by the control unit , which second semiconductor circuit arrangement is connected to the bypass switch excitation coil in terms of circuitry for the activation thereof, characterized in that at least one connection of the second semiconductor circuit arrangement is directly connected in terms of circuitry to the second supply connection .