19results about "Roller heating devices" patented technology

A heater includes a plurality of heat-generating cells partitioned by a boundary line arranged on a base body, and includes one resistive heating wire formed in each heat-generating cell and having a zig-zag shape as a whole, the resistive heating wire formed by connecting a parallel wiring and a turn-back wiring formed so as to turn back the parallel wiring in a vicinity of the boundary line between adjacent heat-generating cells. In the adjacent heat-generating cells, the resistive heating wire of a heat-generating cell has an extension portion extending the parallel wiring past the boundary line, and the resistive heating wire of the other heat-generating cell is shortened or deformed so that a wiring of a portion facing the extension portion maintains an electrical insulation with the extension portion. The resistive heating wires of the adjacent heat-generating cells include extension portions alternately in a boundary line direction.

Whether a first heating region is actually a passing heating region or a non-passing heating region which a recording material does not pass through, is detected by the temperature detected by a temperature detecting portion, based on a difference between a detected temperature by a temperature detecting portion in a reference heating region, which is specified to a heating region including a conveyance reference position of the recording material, and a detected temperature in a first heating region which does not include the conveyance reference position and is specified to a passing heating region which the recording material passing through. In a case where it is determined that the first heating region is the non-passing heating region, a prevention control, to prevent overheat of the first heating region is performed in the heating processing of the recording material that passes the nip portion after the determination.

To solve the problem in which: when heating elements are different in distance from a thermistor in a short direction of a heater, the temperature responsiveness of the thermistor may vary depending on the heating element that generates heat.SOLUTION: In a short direction of a substrate, the distance from a temperature detection element to a first heating element is a first distance, and the distance from the temperature detection element to a second heating element is a second distance longer than the first distance. When seen in a thickness direction orthogonal to the short direction and a longitudinal direction of the substrate, a conductor overlaps the first heating element and the second heating element.SELECTED DRAWING: Figure 3

A heating device includes a heating roller that is rotated to heat a member to be heated, in which the heating roller is provided with at least an electrically insulating layer and a resistance heat generating layer that are provided in this order on one or both of an inner peripheral surface and an outer peripheral surface of a cylindrical roller substrate made of metal on which rust occurs, without an anti-rust layer.

A heater assembly includes a tubular body, a heater, and a support member. The tubular body is formed in a tubular shape and has a length that extends longitudinally. The heater is received within the tubular body. The heater provides thermal energy in response to being electrically energized. The heater includes a first surface side extending laterally and longitudinally along an inner peripheral surface of the tubular body. The heater includes n electrical contact, through which electrical energy is supplied to the heater. The support member is coupled to the heater and extends longitudinally. The support member defines an opening that exposes the electrical contact. The support member is configured to bend to facilitate coupling the heater to the support member.

A heating device includes a heating roller that is rotated to heat a member to be heated, in which the heating roller is provided with at least an electrically insulating layer and a resistance heat generating layer that are provided in this order on one or both of an inner peripheral surface and an outer peripheral surface of a cylindrical roller substrate made of metal on which rust occurs, without an anti-rust layer.

To provide a heating device that can prevent complication of a support member.SOLUTION: A heating device of an embodiment has a cylindrical body, a heater, a power supply unit, a support member, and a soaking member. The cylindrical body is formed into a cylindrical shape. The heater is arranged inside the cylindrical body. The heater has an axial direction of the cylindrical body as a longitudinal direction. The heater is in contact, on its first surface, with an inner peripheral surface of the cylindrical body. The heater generates heat upon energization. The power supply unit supplies power to the heater. The support member is formed with an opening to expose the power supply unit. The support member has the axial direction as a longitudinal direction. The support member is attached by being bent relative to the heater and supports the heater. The soaking member is in contact with a second surface of the heater on the opposite side of the first surface. The soaking member equalizes the temperature distribution of the heater. The soaking member has a recess in an outer surface directed toward the heater.SELECTED DRAWING: Figure 8

To provide a fixing device capable of detecting an abnormal temperature rise of a heater in a timely manner. [Solution] The fixing device 7 comprises a fixing belt that heats the toner on the paper as it rotates around its axis, a pressure roller that pressurizes the toner on the paper as it passes through a pressure area as it rotates around its axis, a heater 22 that contacts the inner surface of the fixing belt and heats the fixing belt, and a heat source temperature detection member 41 that detects the temperature of the heater 22. The heater 22 has a substrate 30 that extends in the axial direction of the fixing belt, and a heat generating section 31 that is formed on one side of the substrate 30 facing the pressure area across the fixing belt at a position shifted to one side from the axial center, and that generates heat when electricity is applied. The heater 22 is divided into a short region B1 on one side of the axial direction and a long region B2 on the other side of the axial direction, with the axial center of the heat generating section 31 as the boundary BL, and the heat source temperature detection member 41 is located in the short region B1 of the heater 22.

A heating device, an image forming apparatus, and a liquid discharge apparatus. The heating device includes a heating roller having heat sources inside to heat a sheet. The heat sources include three or more first heat sources having a same distribution of thermal intensity and a second heat source having a distribution of thermal intensity different from the distribution of the thermal intensity of the first heat sources, and the second heat source is disposed inside a polygon whose vertices are the first heat sources when viewed from one end of the heating roller in a longitudinal direction of the heating roller. The image forming apparatus includes an image forming device to form an image on a sheet, and the heating device to heat the sheet. The liquid discharge apparatus includes a liquid discharge device to discharge liquid onto a sheet, and the heating device to heat the sheet.

To prevent a resistance heating layer or the like from being peeled at a part where a sudden temperature change occurs at the time of heating without adding a new member in a heating roll in which at least an electric insulating layer and the resistance heating layer are provided in this order on one or both of the inner peripheral surface and outer peripheral surface of a metallic cylindrical roll base material where rust may occur.SOLUTION: The heating device includes a heat roll 53A that rotates to heat a member to be heated. In the heat roll 53A, at least an electric insulating layer 532 and a resistance heating layer 533A are provided in this order on one or both of the inner peripheral surface and the outer peripheral surface of a cylindrical roll base material 531 made of metal capable of generating rust without the presence of a rust-proofing layer 535.SELECTED DRAWING: Figure 4

The method of the present disclosure for manufacturing a battery includes roller conveying a heated elongated sheet-like bipolar electrode laminate with a conveying roller. In the method of the present disclosure, the conveying roller has a heating portion at a position overlapping with the gap portion or the opposite side surface thereof, and has a non-heating portion at a position overlapping with the gap portion or a portion other than the opposite side surface thereof, so that the temperature decrease of the gap portion of the bipolar electrode laminate when the bipolar electrode laminate passes through the conveying roller is less than 30° C., and the temperature decrease of the portion other than the gap portion of the bipolar electrode laminate is 30° C. or more.

The invention provides a method for manufacturing a battery. A method of the present disclosure for manufacturing a battery includes roller-transporting a heated elongated sheet-like bipolar electrode laminate with a transport roller. In the method of the present disclosure, the conveyance roller has a heating portion at a position overlapping the gap portion or the opposite side surface thereof, and has a non-heating portion at a position overlapping the gap portion or a portion other than the opposite side surface thereof, whereby the temperature of the gap portion of the bipolar electrode laminate is reduced to less than 30 DEG C when the bipolar electrode laminate passes through the conveyance roller. And the temperature of a portion other than the gap portion of the bipolar electrode laminate is reduced to 30 DEG C or more.

This disclosure provides a method for manufacturing a battery that can suppress cracking of the electrode active material layer on the opposite side of the gap between bipolar electrode stacks. [Solution] The present disclosure's method for manufacturing a battery includes conveying a heated long sheet-like bipolar electrode stack 100 on a conveyor roller 20. In the present disclosure's method, the conveyor roller has a heating section 21 at a position overlapping with the gap 131 or the opposite side thereof, and a non-heating section 22 at a position overlapping with a portion other than the gap or the opposite side thereof, thereby, when the bipolar electrode stack passes through the conveyor roller, The temperature drop in the gaps of the bipolar electrode stack is less than 30°C; and The temperature drop in parts of the bipolar electrode stack other than the gaps is 30°C or more. It is designed that way.

A heater of the present invention includes jointed heat generating resistors having a positive temperature characteristic of resistance and provided between a first conductive element and a second conductive element on a substrate in a longitudinal direction of the substrate, and a plurality of heating blocks provided in the longitudinal direction, each of which is a set of the first conductive element, the second conductive element, and the heat generating resistor, and power supplied to at least one of the plurality of heating blocks can be controlled independent of other heating blocks.