This method for manufacturing an electrode 4 for an electric power storage module comprises: a disposing step of disposing, along an outer edge portion 42c of an electrode foil 42, a first resin member 45 on a first surface 42a and a second resin member 46 on a second surface 42b; a temporary fixing step of temporarily fixing each of the first resin member 45 and the second resin member 46 to the electrode foil 42 by point welding using heat irons 81, 82; and a main welding step of thermally welding each of the first resin member 45 and the second resin member 46 to the electrode foil 42, wherein, in the temporary fixing step, a pressing member is disposed on at least one side of the first resin member 45 and the second resin member 46 in a wider range than tip portions 81a, 82a of the heat irons 81, 82, and the first resin member and the second resin member are point-welded to the electrode foil 42 in a state where the resin member around the welding point is pressed by the pressing member.
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/103 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie caractérisés par leur forme ou leur structure physique prismatique ou rectangulaire
NATIONAL INSTITUTE OF ADVANCED INDUSTRIAL SCIENCE AND TECHNOLOGY (Japon)
Inventeur(s)
Sagawa Ryusuke
Inoue Yuta
Koide Yukikazu
Abrégé
This article list division device divides an article list including information pertaining to articles to be packed into a plurality of boxes on the basis of learning information learned in advance, and generates a divided list including information pertaining to articles to be packed into one box, wherein: a control unit of the article list division device includes a storage unit that stores the learning information, an input information reception unit that creates input information relating to the article list, a neural network computation unit in which the input information is inputted to an input layer and which calculates an article-related evaluation value by using neural network computation based on learning information learned in advance on the basis of packaging results, and a divided list generation unit that generates the divided list on the basis of the evaluation value outputted from an output layer of the neural network calculation unit; and the divided list generation unit creates a divided list based on outputs of the probability of entering the same box and the probability of entering a different box, among the plurality of articles.
A device (100) for manufacturing a power storage module comprises: a sensor (C4) that detects a third electrode unit (62) subject to conveyance; a sensor (C5) that detects the third electrode unit (62) subject to lamination; and an adjustment mechanism (G5). The sensor (C4) detects the third electrode unit (62) held by a hand part (H4), and the sensor (C5) detects the third electrode unit (62) placed on a stage (T5). The adjustment mechanism (G5) adjusts the relative position of the third electrode unit (62) by moving the stage (T5) on the basis of the detection result from the sensor (C4) and the detection result from the sensor (C5).
H01G 11/10 - Condensateurs hybrides ou condensateurs EDL multiples, p.ex. réseaux ou modules
H01G 11/84 - Procédés de fabrication de condensateurs hybrides ou EDL ou de leurs composants
H01G 13/00 - Appareils spécialement adaptés à la fabrication de condensateurs; Procédés spécialement adaptés à la fabrication de condensateurs non prévus dans les groupes
4.
METHOD FOR MANUFACTURING POWER STORAGE MODULE AND WELDING DEVICE
This method for manufacturing a power storage module includes: a preparation step for preparing an electrode 4 with a resin frame by welding a first resin frame 41 made of resin to an outer edge part of an electrode foil 42 provided with an active material layer; an arrangement step for arranging a second resin frame 5 made of resin on the first resin frame 41 of the electrode 4 with a resin frame so as to be overlapped; a temporary fixing step for temporarily fixing the first resin frame 41 and the second resin frame 5 overlapped in the arrangement step by spot welding using a hot iron 8; and a lamination step for forming a laminate by laminating a plurality of electrodes 4 with a resin frame to which the second resin frame 5 is temporarily fixed as one lamination unit. The temporary fixing step includes arranging a sheet member 9 between a tip part 8a of the hot iron 8 and the first resin frame 41 or the second resin frame 5, and spot welding the first resin frame 41 and the second resin frame 5 with the sheet member 9 interposed therebetween.
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
This power storage device comprises a plurality of bipolar electrodes. Each of the plurality of bipolar electrodes comprises: a first current collector foil and a second current collector foil that overlap each other; a conductive adhesive layer that is located between the first current collector foil and the second current collector foil and is bonded to the first current collector foil and the second current collector foil; a first active material layer that is located on the surface of the first current collector foil; and a second active material layer that is located on the surface of the second current collector foil. The conductive adhesive layer includes an adhesive agent and a conductive auxiliary agent dispersed in the adhesive agent. The conductive auxiliary agent is composed of spherical particles each having a spherical core and a conductive film covering the core. The addition ratio of the conductive auxiliary agent in the conductive adhesive layer is 0.1 vol% to 1.0 vol%, inclusive, and a first value obtained by adding twice the standard deviation of the particle diameter of the conductive auxiliary agent to the average particle diameter of the conductive auxiliary agent is equal to or greater than the thickness of the conductive adhesive layer.
H01G 11/12 - Condensateurs hybrides ou EDL à empilement
H01G 11/68 - Collecteurs de courant caractérisés par leur matériau
H01G 11/70 - Collecteurs de courant caractérisés par leur structure
H01M 4/02 - PROCÉDÉS OU MOYENS POUR LA CONVERSION DIRECTE DE L'ÉNERGIE CHIMIQUE EN ÉNERGIE ÉLECTRIQUE, p.ex. BATTERIES Électrodes Électrodes composées d'un ou comprenant un matériau actif
H01M 4/13 - PROCÉDÉS OU MOYENS POUR LA CONVERSION DIRECTE DE L'ÉNERGIE CHIMIQUE EN ÉNERGIE ÉLECTRIQUE, p.ex. BATTERIES Électrodes Électrodes composées d'un ou comprenant un matériau actif Électrodes pour accumulateurs à électrolyte non aqueux, p.ex. pour accumulateurs au lithium; Leurs procédés de fabrication
This scroll compressor comprises a housing (6), a drive mechanism (10), a first scroll (30), and a second scroll (40). The first scroll (30) and the second scroll (40) form a compression chamber (12) for compressing a refrigerant. A case (15) is fixed to the first scroll (30). A discharge chamber (16) is formed in the case (15). The discharge chamber (16) is in communication with the compression chamber (12), and the refrigerant that has been compressed in the compression chamber (12) is discharged thereinto. The case (15) is supported by the housing (6) via a bearing (14) so as to be able to rotate within the housing (6). The discharge chamber (16) is formed with a greater diameter than the outer diameter of the bearing (14).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
This scroll compressor (1) comprises a housing (6), a drive mechanism (10), a first scroll (30), a second scroll (40), and a driven mechanism (20). An intake communication path (69) is formed in the housing (6). In addition, an accumulator (15) is accommodated in the housing (6). The accumulator (15) communicates with the intake communication path (69). A refrigerant is suctioned into the accumulator (15) from outside the housing (6) through the intake communication path (69). In addition, the accumulator (15) is fixed to the first scroll (30) so as to be rotatable inside the housing (6).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
F04C 29/02 - Lubrification; Séparation du lubrifiant
A co-rotating scroll compressor (1) comprises a housing (6), a drive mechanism (10), a drive scroll (30), a driven scroll (40), and a driven mechanism (20). In the housing (6), there is formed an intake chamber (65) into which a refrigerant that contains lubricating oil (18) is drawn from outside of the housing (6). An accumulator (15) is accommodated in the intake chamber (65). The accumulator (15) communicates with the intake chamber (65), draws the refrigerant into the suction chamber (65), and separates the refrigerant into a gas refrigerant and a liquid refrigerant. The accumulator (15) is fixed to the drive scroll (30) so as to be capable of rotating within the intake chamber (65). An intake passage (35a) that communicates with the interior of the accumulator (15) and allows the gas refrigerant in the accumulator (15) to be drawn into a compression chamber (12) is formed in the drive scroll (30).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
F04C 29/12 - Dispositions pour l'admission ou l'échappement du fluide de travail, p.ex. caractéristiques de structure de l'admission ou de l'échappement
9.
SLIDE BEARING STRUCTURE AND TURBO-TYPE FLUID MACHINE
This turbo-type fluid machine comprises: a rotating body (24) that has a bearing receiving surface (24g); an operating body that rotates integrally with the rotating body (24) and pressure-feeds an external fluid; and a foil bearing (60) that has a bearing surface (60a) facing the bearing receiving surface (24g), and supports the rotating body (24) in a manner allowing the same to rotate relative to a housing (11). A coating layer (61) is formed on one of the bearing receiving surface (24g) and the bearing surface (60a). The coating layer (61) contains a polyamide-imide as a resin binder (61a) and molybdenum disulfide as a solid lubricant (61b). A titanium oxide film (62) is formed on the other of the bearing receiving surface (24g) and the bearing surface (60a). The coating layer (61) and the titanium oxide film (62) face each other.
This turbo-type fluid machine is provided with: a rotary body (24) that has a bearing-supported surface (24g); an operating body that rotates integrally with the rotary body (24) to pressure-feed external fluid; and a foil bearing (60) that has a bearing surface (60a) facing the surface (24g) to be borne and rotatably supports the rotary body (24) with respect to a housing (11). A coating layer (61) is formed on one of the bearing-supported surface (24g) and the bearing surface (60a). The coating layer (61) contains: polyamideimide serving as a resin binder (61a); and molybdenum disulfide serving as a solid lubricant (61b). A hard chromium plating film (62) is formed on the other of the bearing-supported surface (24g) and the bearing surface (60a). The coating layer (61) and the hard chromium plating film (62) face each other.
When fuel is supplied to a fuel tank, an ECU (100) acquires the density (ρf) of a fuel (S10) and acquires the cetane number (Cn) of the fuel (S11). The ECU (100) calculates T50 (a distillation property) using a T50 calculation map on the basis of the density (ρf) and the cetane number (Cn) (S12). The distillation property of the fuel supplied to the fuel tank can thereby be accurately detected.
F02D 45/00 - Commande électrique non prévue dans les groupes
F02D 41/06 - Dispositions de circuits pour produire des signaux de commande introduisant des corrections pour des conditions particulières de fonctionnement pour le démarrage ou le réchauffage du moteur
F02D 41/12 - Dispositions de circuits pour produire des signaux de commande introduisant des corrections pour des conditions particulières de fonctionnement pour la décélération
F02D 41/34 - Commande de l'injection de combustible du type à basse pression avec des moyens pour commander la synchronisation ou la durée de l'injection
An engine system (1) comprises: a reformer (25) that reforms an ammonia gas to generate a reformed gas; an upstream reforming flow path (26) through which air supplied to the reformer (25) flows; a reforming throttle valve (27) that controls the flow rate of the air; a reforming injector (30) that intermittently injects the ammonia gas towards the reformer (25); a downstream reforming flow path (33) through which the reformed gas flows towards the cylinder (10) of the ammonia engine (2); and a controller (42) that controls the reforming throttle valve (27) and the reforming injector (30). The controller (42) controls the reforming injector (30) such that the ammonia gas is supplied multiple times at different timings to the reformer (25) during an intake period T, which is from the beginning of an air intake process in the cylinder (10) to the beginning of the next air intake process in the cylinder (10).
F02D 19/02 - Commande des moteurs caractérisés par l'emploi de combustible non liquide, de combustibles multiples ou de substances non combustibles ajoutées au mélange carburant particulière aux moteurs fonctionnant avec des combustibles gazeux
F02D 19/08 - Commande des moteurs caractérisés par l'emploi de combustible non liquide, de combustibles multiples ou de substances non combustibles ajoutées au mélange carburant particulière aux moteurs fonctionnant avec des combustibles multiples, p.ex. alternativement du fuel léger et du fuel lourd, et autres que les moteurs indifférents au combustible utilisé utilisant simultanément des combustibles multiples
F02D 45/00 - Commande électrique non prévue dans les groupes
F02M 21/02 - Appareils pour alimenter les moteurs en combustibles non liquides, p.ex. en combustibles gazeux stockés sous forme liquide en combustibles gazeux
F02M 27/02 - Appareils pour traiter l'air comburant, le combustible ou le mélange air-combustible par catalyseurs, moyens électriques, magnétisme, rayonnement, ondes sonores ou moyens analogues par catalyseurs
An engine system (1) comprises: a reformer (25) that reforms ammonia gas; a reforming throttle valve (27) that controls the flow rate of air supplied to the reformer (25); a reforming injector (30) that intermittently jets ammonia gas toward the reformer (25); a downstream-side reforming flow path (33) through which the reformed gas flows toward the inside of a cylinder (10) of an ammonia engine (2); and a controller (42) that controls the reforming throttle valve (27) and the reforming injector (30). The controller (42) controls the reforming injector (30) so that the ammonia gas is jetted in accordance with the timing at which the flow rate of the air supplied to the reformer (25) increases due to intake pulsation in an intake period T, which covers from the start of the stroke for suctioning air into the cylinder (10) until the start of the next stroke for suctioning air into the cylinder (10).
F02D 19/02 - Commande des moteurs caractérisés par l'emploi de combustible non liquide, de combustibles multiples ou de substances non combustibles ajoutées au mélange carburant particulière aux moteurs fonctionnant avec des combustibles gazeux
F02D 45/00 - Commande électrique non prévue dans les groupes
F02M 21/02 - Appareils pour alimenter les moteurs en combustibles non liquides, p.ex. en combustibles gazeux stockés sous forme liquide en combustibles gazeux
F02M 27/02 - Appareils pour traiter l'air comburant, le combustible ou le mélange air-combustible par catalyseurs, moyens électriques, magnétisme, rayonnement, ondes sonores ou moyens analogues par catalyseurs
14.
HEAT MANAGEMENT SYSTEM FOR VEHICLES AND INTEGRATED SWITCHING VALVE
This heat management system for vehicles comprises a refrigerant circuit (1), a heating-medium circuit (2), and a cooling-medium circuit (3). An interior air cooler (4) is incorporated into the refrigerant circuit (1) or the cooling-medium circuit (3). A condenser (5) for heating is incorporated into the refrigerant circuit (1) and the heating-medium circuit (2), and a chiller (6) for cooling is incorporated into the refrigerant circuit (1) and the cooling-medium circuit (3). A battery-temperature-adjustment heat exchanger (7) as a first heat exchanger and a radiator (8) as a second heat exchanger are incorporated into the heating-medium circuit (2) and the cooling-medium circuit (3). A control device (9) exerts switching control on an integrated switching valve (40) to selectively cause either a heating medium or a cooling medium to pass through the battery-temperature-adjustment heat exchanger (7) and the radiator (8).
This self-discharge test method for a secondary battery (12) includes calculating a voltage drop amount (ΔV1) of each of a plurality of the secondary batteries (12) during a self-discharge period from the voltage of each of the plurality of secondary batteries (12) at a self-discharge start time point and a voltage at a self-discharge end time point when a battery module (10) is charged to a predetermined capacity. The self-discharge test method for the secondary battery (12) includes: performing GO/NO-GO determination of each of the plurality of secondary batteries (12) on the basis of the voltage drop amount (ΔV1) and a map in which a change in SOC with respect to a change in the voltage of the secondary battery (12) when the secondary battery (12) is self-discharged is made to correspond to the voltage at a self-discharge start time point.
H02J 7/00 - Circuits pour la charge ou la dépolarisation des batteries ou pour alimenter des charges par des batteries
G01R 31/378 - Dispositions pour le test, la mesure ou la surveillance de l’état électrique d’accumulateurs ou de batteries, p.ex. de la capacité ou de l’état de charge spécialement adaptées à un type de batterie ou d’accumulateur
G01R 31/382 - Dispositions pour la surveillance de variables des batteries ou des accumulateurs, p.ex. état de charge
G01R 31/385 - Dispositions pour mesurer des variables des batteries ou des accumulateurs
G01R 31/396 - Acquisition ou traitement de données pour le test ou la surveillance d’éléments particuliers ou de groupes particuliers d’éléments dans une batterie
H01M 10/48 - Accumulateurs combinés à des dispositions pour mesurer, tester ou indiquer l'état des éléments, p.ex. le niveau ou la densité de l'électrolyte
NATIONAL UNIVERSITY CORPORATION HOKKAIDO UNIVERSITY (Japon)
Inventeur(s)
Kondo Toyohiro
Soda Hiroki
Ueda Naoharu
Nawa Masamichi
Kato Norihiko
Noda Itsuki
Iida Takumi
Abrégé
This automatic conveyance system is provided with a plurality of conveyance devices and a management device that manages the plurality of conveyance devices. The management device is capable of executing: a task assignment process for assigning a task to each of the conveyance devices; and a task optimization process for switching conveyance tasks when a conveyance cost is calculated for the case in which assigned conveyance tasks are switched between two of the conveyance devices different from each other and if the calculated conveyance cost is less than a conveyance cost at the time of the task assignment process, or when a conveyance cost is calculated for the case in which the assigned conveyance tasks and unassigned conveyance tasks are switched and if the calculated conveyance cost is less than a conveyance cost in which the unassigned conveyance tasks are assigned to any of the conveyance devices. The management device executes the task optimization process while the conveyance devices processes the tasks assigned by the task assignment process.
B65G 1/00 - Emmagasinage d'objets, individuellement ou avec une certaine ordonnance, dans des entrepôts ou des magasins
B65G 1/137 - Dispositifs d'emmagasinage mécaniques avec des aménagements ou des moyens de commande automatique pour choisir les objets qui doivent être enlevés
This internal combustion engine includes, in a cavity (CA), a bottom wall (510) that extends radially outward from a center axis (A) while gradually trending away from a cylinder head, a plurality of recess walls (520) that are in communication with the bottom wall (510) and are curved so as to protrude radially outward, and step sections (550) that are provided between the bottom wall (510) and the recess walls (520), wherein the step sections (550) are arc-shaped in planar view. As a result, a spray flame (B2) that flows along the bottom wall (510) flows along the step sections (550), and thus the spray flame (B2) is drawn away (the areas surrounded by dashed lines (VII) in the diagram) from the bottom wall (510) and moves toward the center of the cavity (CA), and mixing of a fuel and residual air is further promoted, making it possible to improve combustion efficiency.
F02F 3/26 - Pistons comportant une chambre de combustion ménagée dans la tête de piston
F02B 23/00 - Autres moteurs caractérisés par des chambres de combustion d'une forme ou d'une structure particulières pour améliorer le fonctionnement
F02B 23/06 - Autres moteurs caractérisés par des chambres de combustion d'une forme ou d'une structure particulières pour améliorer le fonctionnement avec allumage par compression l'espace de combustion étant disposé dans le piston moteur
This power storage module comprises: a multilayer body in which a plurality of electrodes that each have a current collector are stacked; and a resin sealing part which is provided at a peripheral edge part of the current collector. The sealing part comprises a plurality of rectangular frame-shaped seal layers and a plurality of rectangular frame-shaped spacer layers 33. The plurality of seal layers are bonded to a first surface and a second surface at the peripheral edge part of the current collector of each of the plurality of electrodes. Each of the plurality of spacer layers 33 is positioned between seal layers adjacent to each other in the stacking direction, seals an internal space, which is formed between current collectors adjacent to each other in the stacking direction, together with the plurality of seal layers, and has a plurality of linear members 41 that are arranged apart from each other when viewed from the stacking direction and each have a region that linearly extends, and a bond member 42 that is bonded to end edges 41a of linear members 41 adjacent to each other so as to fill the gap between the end edges 41a.
H01M 50/184 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par leur forme ou leur structure
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/103 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie caractérisés par leur forme ou leur structure physique prismatique ou rectangulaire
H01M 50/129 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie caractérisés par le matériau ayant une structure en couches comprenant au moins trois couches dont au moins deux couches de matériaux organiques uniquement
POSITIVE ELECTRODE MATERIAL FOR LITHIUM ION SECONDARY BATTERY, POSITIVE ELECTRODE FOR LITHIUM ION SECONDARY BATTERY, AND METHOD FOR MANUFACTURING POSITIVE ELECTRODE MATERIAL FOR LITHIUM ION SECONDARY BATTERY
H01M 4/58 - Emploi de substances spécifiées comme matériaux actifs, masses actives, liquides actifs de structures polyanioniques, p.ex. phosphates, silicates ou borates
H01M 4/136 - PROCÉDÉS OU MOYENS POUR LA CONVERSION DIRECTE DE L'ÉNERGIE CHIMIQUE EN ÉNERGIE ÉLECTRIQUE, p.ex. BATTERIES Électrodes Électrodes composées d'un ou comprenant un matériau actif Électrodes pour accumulateurs à électrolyte non aqueux, p.ex. pour accumulateurs au lithium; Leurs procédés de fabrication Électrodes à base de composés inorganiques autres que les oxydes ou les hydroxydes, p.ex. sulfures, séléniures, tellurures, halogénures ou LiCoFy
H01M 4/36 - Emploi de substances spécifiées comme matériaux actifs, masses actives, liquides actifs
A housing (11) has a partition wall that forms a partition between an impeller chamber (28) and an accommodation chamber. An impeller (42) has a back surface (42a) that faces the partition wall in the axial direction of a rotary shaft (41), and is disposed such that a gap (57) is formed between the back surface (42a) and the partition wall. The partition wall is provided with an elastic part (84) configured so as to form, in the gap (57), a minimum gap (85) having the smallest size along the axial direction between the partition wall and the back surface (42a). The elastic part (84) is configured so as to elastically support the impeller (42) in a state of being displaceable in the axial direction when the back surface (42a) abuts thereon. The maximum displacement amount of the elastic part (84) in the axial direction is larger than the maximum displacement amount in the axial direction of a bump foil.
The present invention provides a yarn or woven fabric image-taking device in which the image-taking subject is yarn or woven fabric, said device comprising: a camera that takes an image of the image-taking subject; illumination that illuminates the image-taking subject; a luminance setting unit that sets a suitable value of luminance corresponding to the color of the image-taking subject as a target value; a luminance detection unit that detects the luminance of the image-taking subject from an image taken by the camera; and a brightness control unit that controls the brightness of the illumination on the basis of the target value set by the luminance setting unit and the luminance of the image-taking subject detected by the luminance detection unit, such that the luminance of the image-taking subject in the taken image is the target value.
C25B 11/091 - PROCÉDÉS ÉLECTROLYTIQUES OU ÉLECTROPHORÉTIQUES POUR LA PRODUCTION DE COMPOSÉS ORGANIQUES OU MINÉRAUX, OU DE NON-MÉTAUX; APPAREILLAGES À CET EFFET Électrodes; Leur fabrication non prévue ailleurs caractérisées par le matériau Électrodes comportant des électro-catalyseurs sur un substrat ou un support caractérisées par le matériau électro-catalytique formé de plusieurs éléments catalytiques ou composés catalytiques
C25B 1/04 - Hydrogène ou oxygène par électrolyse de l'eau
C25B 9/00 - PROCÉDÉS ÉLECTROLYTIQUES OU ÉLECTROPHORÉTIQUES POUR LA PRODUCTION DE COMPOSÉS ORGANIQUES OU MINÉRAUX, OU DE NON-MÉTAUX; APPAREILLAGES À CET EFFET Éléments de structure des cellules; Assemblages d'éléments de structure, p.ex. assemblages d'électrode-diaphragme; Caractéristiques des cellules relatives aux procédés
C25B 11/031 - PROCÉDÉS ÉLECTROLYTIQUES OU ÉLECTROPHORÉTIQUES POUR LA PRODUCTION DE COMPOSÉS ORGANIQUES OU MINÉRAUX, OU DE NON-MÉTAUX; APPAREILLAGES À CET EFFET Électrodes; Leur fabrication non prévue ailleurs caractérisées par la configuration ou la forme perforées ou foraminées Électrodes poreuses
C25B 11/052 - PROCÉDÉS ÉLECTROLYTIQUES OU ÉLECTROPHORÉTIQUES POUR LA PRODUCTION DE COMPOSÉS ORGANIQUES OU MINÉRAUX, OU DE NON-MÉTAUX; APPAREILLAGES À CET EFFET Électrodes; Leur fabrication non prévue ailleurs caractérisées par le matériau Électrodes comportant des électro-catalyseurs sur un substrat ou un support Électrodes comportant un substrat et un ou plusieurs revêtements électro-catalytiques
C25B 11/054 - PROCÉDÉS ÉLECTROLYTIQUES OU ÉLECTROPHORÉTIQUES POUR LA PRODUCTION DE COMPOSÉS ORGANIQUES OU MINÉRAUX, OU DE NON-MÉTAUX; APPAREILLAGES À CET EFFET Électrodes; Leur fabrication non prévue ailleurs caractérisées par le matériau Électrodes comportant des électro-catalyseurs sur un substrat ou un support Électrodes comportant des électro-catalyseurs sur un support
In a unit cooler (1), at least one of a condenser (302) and an evaporator (305) is provided between an undercover (101) and a top cover (104), and has a protrusion (302a) or (305a) that protrudes further outward than a base plate (102) on the opposite side of an adjacent fan (308) or (309). The protrusion (302a) or (305a) is provided with collision mitigation members (108, 117) that mitigate collisions with the undercover (101) or the top cover (104).
F24F 1/0323 - Climatiseurs individuels monoblocs pour le conditionnement de l'air, c. à d. avec tout l'appareillage nécessaire au traitement placé dans une enveloppe caractérisés par des échangeurs de chaleur par le montage ou la disposition des échangeurs de chaleur
This thread detection device for a weaving machine is used in a weaving machine (10) provided with a weft insertion device (13) that has a main nozzle (14) which inserts a weft (Y) into a warp (T) opening in the left-right direction of a machine base (11), and a plurality of sub nozzles (15) which are arranged along the left-right direction of the machine base (11) and which discharge air with respect to the inserted weft (Y), and a reed (16) that beats the inserted weft (Y) by rocking in the front-rear direction of the machine base (11). The thread detection device for a weaving machine comprises a camera (32) that images an entrance (Tb) or an exit (Tc) of the opening from an imaging direction (C) such that an inclination angle (θc) with respect to the left-right direction of the machine base (11) is 0°<θc<90°, and a thread detection unit that detects the warp (T) and the weft (Y) from an image captured by the camera (32).
D03D 47/30 - Métiers dans lesquels la bobine de trame ne traverse pas la foule, p.ex. métiers sans navette, métiers à pinces, métiers avec fausse navette sur lesquels la trame elle-même est projetée dans la foule par jet de gaz
In a unit cooler (1), a first fan (308) and a second fan (309) are disposed between a base plate (102) and a top plate (103) and are fixed to the base plate (102) and the top plate (103). An electric compressor (301) is disposed between the base plate (102) and the top plate (103) and between the first fan (308) and the second fan (309).
F24F 1/029 - Climatiseurs individuels monoblocs pour le conditionnement de l'air, c. à d. avec tout l'appareillage nécessaire au traitement placé dans une enveloppe caractérisé par l'agencement ou l’aménagement relatif des composants, p.ex. des compresseurs ou des ventilateurs
In a unit cooler according to the present invention, a through-hole (12g) is provided through a base plate (102) to which an air conditioning unit (300) is secured, condensation water generated in the air conditioning unit (300) being discharged from the through-hole (12g). A water discharge passage (11i) is provided in a recessed form to an undercover (101) provided below the base plate (102). The water discharge passage (11i) is provided apart by a predetermined interval from a plurality of fastening members (701a-701f).
F24F 1/0076 - Climatiseurs individuels pour le conditionnement de l'air, p.ex. éléments séparés ou monoblocs ou éléments recevant l'air primaire d'une station centrale Éléments intérieurs, p.ex. ventilo-convecteurs comportant des moyens de purification de l’air fourni par des moyens électriques, p.ex. des ioniseurs ou des séparateurs électrostatiques
F24F 1/022 - Climatiseurs individuels monoblocs pour le conditionnement de l'air, c. à d. avec tout l'appareillage nécessaire au traitement placé dans une enveloppe à cycle à compression
F24F 1/028 - Climatiseurs individuels monoblocs pour le conditionnement de l'air, c. à d. avec tout l'appareillage nécessaire au traitement placé dans une enveloppe caractérisés par des moyens d’entrée d’air, p.ex. des carters de ventilateur, des registres ou des conduites internes
A centrifugal compressor (10) comprises a housing (11) that partitions an impeller chamber (28) and a motor chamber (18). The housing has a partition wall (17). The partition wall has an inner peripheral surface (17a) that defines an insertion hole (23) into which a rotary shaft (41) is inserted. A labyrinth seal is provided between an outer peripheral surface (42c) of the rotary shaft and the inner peripheral surface of the partition wall. The labyrinth seal has an annular protrusion (71) that protrudes in the radial direction from one among the inner peripheral surface and the outer peripheral surface, and a recess (69) that is provided in the other among the inner peripheral surface and the outer peripheral surface so as to be recessed in the radial direction. A portion of the protrusion is provided with a tooth (74). The recess includes an annular first groove (70), and a second groove (73) extending in the axial direction of the rotary shaft. The tooth is configured to be insertable into the second groove in the axial direction. During the rotation of the rotary shaft, one among the tooth and the first groove orbits relative to the other while the tooth is positioned in the first groove.
A scroll compressor (10) comprises: a rotation shaft (15); a fixed scroll (25) having a fixed base plate (25a) and a fixed spiral wall (25b); an orbiting scroll (26) having an orbiting base plate (26a) and an orbiting spiral wall (26b) that engages with the fixed spiral wall (25b); an eccentric shaft (42) that is positioned eccentric with respect to the axis of the rotation shaft (15) and projects from an end surface of the rotation shaft (15); a boss part (28) that projects from the back surface (26e) of the orbiting base plate (26a); and a bearing (45) that is disposed inward of the boss part (28) and supports the eccentric shaft (42) so as to be able to rotate with respect to the boss part (28). For adjusting the center of gravity of the orbiting scroll (26), the orbiting scroll (26) has a protruding section (53) protruding from the outer peripheral surface of the boss part (28) toward the radially outward side of the boss part (28).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
A transfer system according to the present application utilizes a balancer that generates force for raising a hoisting jig from which cargo is suspended, the transfer system being capable of adjusting the angle of the hoisting jig in accordance with the inclination angle of the suspended cargo. The transfer system has: a turning mechanism that is interposed between the balancer and the hoisting jig, the turning mechanism rotatably holding the hoisting jig so that the inclination angle of the hoisting jig can be changed; a robot arm that controls the rotation angle of the turning mechanism to generate hoisting jig rotation force for rotating the hoisting jig; and a control unit that adjusts the rotation angle by causing the robot arm to generate the hoisting jig rotation force when the cargo is suspended from the hoisting jig.
A co-rotating scroll compressor according to the present invention comprises: a housing (6), a drive mechanism (10), a drive scroll (30), a driven scroll (40), and a driven mechanism (20). A suction port (32) is formed in the drive scroll (30). The housing (6) has a first facing part (61) facing the drive scroll (30) and the suction port (32) in the direction of a drive axis (O1). The drive scroll (30) has a second facing part (37) facing the first facing part (61) in the direction of the drive axis (O1). The suction port (32) is formed in the second facing part (37). The first facing part (61) is provided with a guide part (23) for guiding a lubricating oil (18) from radially outside of the suction port (32) toward the suction port (32).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
F04C 29/02 - Lubrification; Séparation du lubrifiant
In this unit cooler (1), a housing (100) has: a base plate (102) on which an air-conditioning unit (300) is mounted; and an under cover (101) provided below the base plate (102). A fastening member (701a to 701f), including a first member (21) fastened to the base plate (102), a second member (22) fastened to the under cover (101), and an intermediate member (23) that connects the first member (21) with the second member (22) and has vibration-proof properties and predetermined insulation properties, is provided between the base plate (102) and the under cover (101).
B60H 1/00 - Dispositifs de chauffage, de refroidissement ou de ventilation
F24F 1/022 - Climatiseurs individuels monoblocs pour le conditionnement de l'air, c. à d. avec tout l'appareillage nécessaire au traitement placé dans une enveloppe à cycle à compression
F24F 1/028 - Climatiseurs individuels monoblocs pour le conditionnement de l'air, c. à d. avec tout l'appareillage nécessaire au traitement placé dans une enveloppe caractérisés par des moyens d’entrée d’air, p.ex. des carters de ventilateur, des registres ou des conduites internes
A centrifugal compressor (10) comprises: a rotating body (40) including a rotating shaft (41), an impeller (42) that rotates integrally with the rotating shaft (41) in order to compress air that is supplied to a fuel cell stack (61), and an impeller nut (172) that fixes the impeller (42) to the rotating shaft (41); and a housing (11) that accommodates the rotating body (40). A cylindrical adjustment member (71) into which the rotating shaft (41) is inserted is provided between the impeller (42) and the impeller nut (172). The adjustment member (71) is configured to adjust the balance of the rotating body (40).
A co-rotating scroll compressor according to the present invention comprises a driven mechanism (20), etc. The driven mechanism (20) comprises: a plurality of shaft parts (211)-(216) provided to one of a drive scroll (30) and a driven scroll (40); and a plurality of holding parts (221)-(226) provided to the other one of the drive scroll (30) and the driven scroll (40). Each of the holding parts (221)-(226) communicates with a scroll chamber (65). A suction passage (37) for sucking a fluid in the scroll chamber (65) into a compression chamber (12) is formed in the compressor. The suction passage (37) sucks the fluid in the scroll chamber (65) into the compression chamber (12) through the holding parts (221)-(226), which form portions of the suction passage (37).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
A drive mechanism (10) has a rotor (11) disposed on the outer peripheral surface of a drive scroll (30). The outer peripheral surface of the drive scroll (30) has: a first region (S), which includes a connection portion (82) between an outer peripheral end of a drive spiraling body (33) and a drive peripheral wall (32) in the circumferential direction of the drive scroll, and a part of the drive peripheral wall (32); and a second region including the rest of the drive peripheral wall (32) other than the drive peripheral wall (32) that is in the first region (S). The drive peripheral wall (32) in the first region (S) is a thick portion (85) where a first inner surface (83) facing radially inward is positioned farther radially inward than a second inner surface (84) of the drive peripheral wall (32) in the second region. The first region (S) of the drive scroll (30) and the portion of the rotor (11) that corresponds to the first region (S) are provided with a recess (87) and a protrusion (114) that serve as mechanisms for transmitting torque from the rotor (11) to the drive scroll (30).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
On one side in the direction of a drive axis (R1) in a driving scroll (30), a bearing cover body (36) with a higher strength than a driving end plate (31) is fixed to an end surface (311) on an opposite side of the driving end plate (31) from a compression chamber (55), and, on the other side in the direction of the drive axis (R1) in the driving scroll (30), a restricting part (811) is mounted on a driving peripheral wall (32). The bearing cover body (36) integrally has a supported part (38). A driving mechanism (10) has a rotor (11) that is disposed on an outer peripheral surface of the driving scroll (30) while surrounding the driving scroll (30) from the outer peripheral side. The rotor (11) is restricted, by the bearing cover body (36), from moving toward the one side in the direction of the drive axis (R1), and is restricted, by the restricting part (811), from moving toward the other side in the direction of the drive axis.
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
This control device comprises: a driving signal output unit that converts a γ-axis voltage command value and a δ-axis voltage command value into driving signals, and outputs the resulting signals to an inverter; and an estimation unit that calculates an estimated expansion induced voltage generated in a motor on the basis of a γ-axis current value, a δ-axis current value, the γ-axis voltage command value, and the δ-axis voltage command value, and calculates an estimated position of the motor on the basis of the estimated expansion induced voltage. The driving signal output unit generates an upper arm short-circuit driving signal or a lower arm short-circuit driving signal when a re-activation request has been received or when it has been determined that the motor is rotating at a low speed. The estimation unit calculates the estimated position on the basis of the γ-axis current value and the δ-axis current value converted from current flowing through the motor by the upper arm short-circuit driving signal or the lower arm short-circuit driving signal.
H02P 21/24 - Commande par vecteur sans utilisation de détecteurs de position ou de vitesse du rotor
H02P 27/06 - Dispositions ou procédés pour la commande de moteurs à courant alternatif caractérisés par le type de tension d'alimentation utilisant une tension d’alimentation à fréquence variable, p.ex. tension d’alimentation d’onduleurs ou de convertisseurs utilisant des convertisseurs de courant continu en courant alternatif ou des onduleurs
A control device according to the present invention generates, if a position cannot be estimated when starting a motor (M) or during sensor-less control or the like, an upper arm short-circuit drive signal that simultaneously turns ON upper arm switching elements (SW1, SW3, SW5) of three phases and simultaneously turns OFF lower arm switching elements (SW2, SW4, SW6) of three phases of an inverter (2), or a lower arm short-circuit drive signal that simultaneously turns OFF the upper arm switching elements (SW1, SW3, SW5) and simultaneously turns ON the lower arm switching elements (SW2, SW4, SW6).
H02P 21/24 - Commande par vecteur sans utilisation de détecteurs de position ou de vitesse du rotor
H02P 6/18 - Dispositions de circuits pour détecter la position sans éléments séparés pour détecter la position
H02P 27/06 - Dispositions ou procédés pour la commande de moteurs à courant alternatif caractérisés par le type de tension d'alimentation utilisant une tension d’alimentation à fréquence variable, p.ex. tension d’alimentation d’onduleurs ou de convertisseurs utilisant des convertisseurs de courant continu en courant alternatif ou des onduleurs
The present invention comprises a layered electrode body that includes a plurality of electrodes that are layered in a layering direction, and an exterior body that houses the layered electrode body, wherein the exterior body includes a first electrically conductive plate (18) that is provided to one surface of the layered electrode body in the layering direction, a second electrically conductive plate that is provided to the other surface of the layered electrode body in the layering direction, a first laminated sheet portion that is bonded to an edge of the first electrically conductive plate, and a second laminated sheet portion that is bonded to an edge of the second electrically conductive plate, each of the first and second laminated sheet portions including one or more first sheets (31) and one or more second sheets (32), the one or more first sheets (31) and the one or more second sheets (32) covering the edge of the first electrically conductive plate (18) and the second electrically conductive plate in conjunction with each other, in a state in which a portion of the second sheet (32) being overlapped with a portion of the first sheet (31).
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/129 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie caractérisés par le matériau ayant une structure en couches comprenant au moins trois couches dont au moins deux couches de matériaux organiques uniquement
H01M 50/184 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par leur forme ou leur structure
A stator cooling flow path (R) includes: a first coil cooling flow path (R20) that is provided in a first molded section (41); and a first communication hole (R1) that is provided in a housing (11) and causes an external coolant flow path (100) and the first coil cooling flow path (R20) to communicate and a second communication hole (R2) that is provided in the housing (11) and causes the first coil cooling flow path (R20) and a core cooling flow path (R10) to communicate. One end section (R1a) of the first communication hole (R1) and one end section (R2a) of the second communication hole (R2) are open in the inner surface of the housing (11). The first coil cooling flow path (R20) is a through-hole that passes through the inside of the first molded section (41). On an outer surface of the first molded section (41), the outer surface being in contact with the inner surface of the housing (11), a first end section (R20a) of the first coil cooling flow path (R20) is connected to the one end section (R1a) of the first communication hole (R1), and a second end section (R20b) of the first coil cooling flow path (R20) is connected to the one end section (R2a) of the second communication hole (R2).
H02K 9/19 - Dispositions de refroidissement ou de ventilation pour machines avec enveloppe fermée et circuit fermé de refroidissement utilisant un agent de refroidissement liquide, p.ex. de l'huile
A mounting structure (30) for a compressor (10) comprises a plurality of mounting legs (20) which are provided on a housing (11) and that are to be fixed to a mounting surface (100a). When a plane including the center (C1) of gravity of the compressor (10) and orthogonal to an axial direction (A) of a rotational shaft is a virtual plane (VP), the direction from the virtual plane (VP) toward a compression mechanism is a first direction (A1), and the direction from the virtual plane (VP) toward the opposite side from the compression mechanism is a second direction (A2), the virtual plane (VP) is positioned between the mounting leg (20) located in the first direction (A1) and the mounting leg (20) located in the second direction (A2). When a value obtained by multiplying the length (D) of the interval between the virtual plane (VP) and a mounting leg (20) in the axial direction (A) of the rotational shaft by the rigidity of the mounting leg (20) is a multiplied value, the total of the multiplied values for the mounting legs (20) located in the first direction (A1) from the virtual plane (VP) is greater than the total of the multiplied values for the mounting legs (20) positioned in the second direction (A2) from the virtual plane (VP).
A power storage device (20) comprises a plurality of power storage cells (29) which are connected in series via bipolar electrodes and each of which has a positive electrode active material layer (31) and a negative electrode active material layer (32). The positive electrode active material layers (31) contain a positive electrode active material that has an oxidation-reduction potential of no greater than 4.2 V associated with the electrochemical insertion/desorption reaction of lithium ions. The power storage cells (29) each accommodate an electrolytic solution L that includes a redox shuttle agent having a higher oxidation-reduction potential than that of the positive electrode active material.
H01M 4/58 - Emploi de substances spécifiées comme matériaux actifs, masses actives, liquides actifs de structures polyanioniques, p.ex. phosphates, silicates ou borates
H01M 10/0567 - Matériaux liquides caracterisés par les additifs
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
This electric power storage module is provided with: an electrode stack in which a plurality of electrodes which each comprise a collector are stacked in a first direction; a sealing body which is provided on the electrode stack so as to surround the electrode stack when viewed from the first direction, and is configured so as to seal a plurality of internal spaces that are respectively formed between collectors adjacent to each other in the first direction; an outer package film which surrounds and houses the electrode stack and the sealing body; and a cover member which is housed in the outer package film so as to intervene between the sealing body and the outer package film, and is affixed to the sealing body, while covering the side surface of the sealing body, the side surface extending in the first direction.
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
Through a seal mechanism (60) provided between an inner peripheral surface partitioning a first insertion hole (23) and a rotary shaft (41), the flow of leaked air, which has been leaked to a rear surface (42e) of a first impeller (42), to a first radial bearing (52) is sealed. Then, through a backflow path (63), the leaked air is flowed back from a space (68) formed between a first protrusion (61) and a second protrusion (62) to a first suction port (27) representing a low pressure side space. Thus, the leakage of the leaked air to the inside of a motor chamber (18) via the first insertion hole (23) is suppressed. Accordingly, an increase in waste air compression is avoided in a centrifugal compressor (10). Moreover, a motor or a bearing is prevented from being heated by the leaked air.
A co-rotating scroll compressor according to the present invention has a driving scroll (31) and a driven scroll (41). The driving scroll (31) includes a driving end plate (31), a driving scroll body (33), a driving peripheral wall (35), and a cover body (37). The driven scroll (41) includes a driven end plate (41) and a driven scroll body (43). The driven end plate (41) is disposed between the driving peripheral wall (35) and the cover body (37) in a state in which the driven end plate can be rotationally driven. The driven end plate (41) and the driving peripheral wall (35) can abut against each other. In this co-rotating scroll compressor, in the state where the driven end plate (41) and the driving peripheral wall (35) are in abutment against each other, a gap (S2) between the driven scroll body (43) and the driving end plate (31) and a gap (S3) between the driving scroll body (33) and the driven end plate (41) are set such that the driven scroll body (43) and the driving end plate (31) are not in contact with each other and the driving scroll body (33) and the driven end plate (41) are not in contact with each other, respectively.
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
A frame of this power storage module comprises a plurality of first communicating holes respectively communicated with a plurality of interior spaces. A pressure regulator valve comprises: a wall (32) which is made of resin, which has formed therein a plurality of second communicating holes (33) respectively communicated with the plurality of first communicating holes, and which faces the frame; protrusions (34) that protrude out from a first wall surface (32a) of the wall (32), and are formed so as to respectively surround the plurality of second communicating holes (33) which open on the first wall surface (32a); and a plurality of valve elements (30) respectively blocking off the plurality of second communicating holes (33) from a second wall surface (32b) side of the wall (32). A groove (37) that is recessed in the direction away from the frame, while also running along the valve elements (30), is formed in a region of the first wall surface (32a) of the wall (32), said region not overlapping with the plurality of valve elements (30) as seen from a second direction.
H01M 50/209 - Bâtis, modules ou blocs de multiples batteries ou de multiples cellules caractérisés par leur forme adaptés aux cellules prismatiques ou rectangulaires
This method for manufacturing an energy storage module comprises: a restraining step for arranging a pair of restraining plates at the two ends of a laminate in a first direction and restraining the laminate in the first direction using the pair of restraining plates; and, after the restraining step, a cutting step for cutting a part of the laminate using a rotary blade to form a cut surface while using the first direction as the vertical direction in a state in which the laminate is restrained by the pair of restraining plates. In the restraining step, the laminate is restrained so that an outer frame region is exposed from the pair of restraining plates, and in the cutting step, the cutting surface is formed by cutting an end section of the outer frame region.
H01G 11/12 - Condensateurs hybrides ou EDL à empilement
H01G 11/84 - Procédés de fabrication de condensateurs hybrides ou EDL ou de leurs composants
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
A centrifugal compressor (10) is provided with a first wall constituting body (16) and a second wall constituting body (12a). The second wall constituting body (12a) has a plurality of communication holes (68) that provide communication between a fluid path (75) and a motor chamber (18) and are provided on the radially outer side of a rotation shaft (41) relative to a second hole (62). A partition wall (16, 12a) is configured so that a fluid leaking to the rear surface of an impeller (43) flows into the fluid path (75) via a first hole (61), and then flows into the motor chamber (18) via the communication holes (68) and the second hole (62). A plurality of cooling fins (70) are provided in the fluid path (75) and are disposed around the rotation shaft (40) so as to extend radially with respect to the rotational axis of the rotation shaft (41). Each of the plurality of cooling fins (70) is disposed between adjacent communication holes of the plurality of communication holes (68) in the circumferential direction of the rotation shaft (41).
A centrifugal compressor (10) is provided with: a back surface plate (61) fixed to a partition wall so as to be opposed to a back surface (42a) of an impeller (42), the back surface plate (61) having a second insertion hole (65) into which a rotation shaft (41) is inserted; and a heat transfer promotion member (90) provided in the partition wall. The back surface plate 61 is configured to divide a fluid leaking to the back surface (42a) of the impeller (42) into a fluid flowing to an impeller side flow path (84) and a fluid flowing to a partition wall side flow path (80). The heat transfer promotion member (90) is configured to promote heat transfer from the fluid flowing through the partition wall side flow path (80) to the partition wall. The back surface plate (61) is further configured so that the fluid, which has flowed through the partition wall side flow path (80), merges with the fluid, which has flowed through the impeller side flow path (84), inside the second insertion hole (65) and then flows to a motor chamber (18) via a first insertion hole (23).
This electric power storage module comprises: a module body having an electrode stack including a plurality of stacked electrodes; and a pressure-regulating valve (22) attached to the module body. The pressure-regulating valve (22) is provided with: a housing (23) having a bottom wall (32) provided with a through hole (33) that communicates with an internal space that is formed between the plurality of electrodes and accommodates an electrolyte, a side wall (40) facing the bottom wall (32) in the Y-axis direction, and a protrusion (43) provided on the side wall (40); and a valve (30) accommodated inside the housing (23) so as to close off the through hole (33). On the side wall (40), provided are a first hole (41) that is open on an external surface (40a) of the side wall (40), and a second hole (42) that is open on the external surface (40a) of the side wall (40) and positioned vertically above the first hole (41). The protrusion (43) protrudes outward along the Y-axis direction on the external surface (40a) and extends so as to divide the first hole (41) and the second hole (42) when viewed from the Y-axis direction.
In a double rotary-type scroll compressor according to the present invention, a first scroll (30) has a first end plate (31) and a first spiral body (33), and a second scroll (40) has a second end plate (41) and a second spiral body (43). In the first end plate (31), a discharge port (39) which communicates with a compression chamber (12) and a discharge chamber (8) is formed. A supply hole (81) is formed in the first end plate (31) and the first spiral body (33). The supply hole (81) has one end (81a) which is open in the first end plate (31) further to the outer periphery of the first end plate (31) than the discharge port (39), and the other end (81b) which is open in an end surface (330) of the first spiral body (33). In addition, a guide groove (83) and a communication path (85) are formed in the end surface (330). The guide groove (83) guides a lubrication oil supplied to the other end (81b) of the supply hole (81) further toward the spiral center of the first spiral body (33) than the other end (81b). The communication path (85) causes the lubrication oil to circulate from the guide groove (83) into the compression chamber (12).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
A scroll compressor (51) comprises an oil passage (60) formed on an opposing surface (51a) of a bush (51). The oil passage (60) has an inflow port (61) extending from a through-hole (54) to an outer peripheral surface of the bush (51) and opening into the outer peripheral surface of the bush (51). An oil groove (70) is formed on an inner peripheral surface of the through-hole (54) and at a portion excluding a place on which a compression load transmitted from a turning scroll acts between the inner peripheral surface of the through-hole (54) and an outer peripheral surface of an eccentric shaft (50). The oil groove (70) opens into an end surface on a turning spiral wall side in the bush (51), while being in communication with the oil passage (60).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
This vehicle heat management system comprises a refrigerant circuit (1), a heating medium circuit (2) and a cooling medium circuit (3). An inside air cooler (4, 51) is incorporated in the refrigerant circuit (1) or the cooling medium circuit (3). A heating condenser (5) is incorporated in the refrigerant circuit (1) and the heating medium circuit (2), and a cooling chiller (6) is incorporated in the refrigerant circuit (1) and the cooling medium circuit (3). A battery temperature regulation heat exchanger (7) and a radiator (8) are incorporated in the heating medium circuit (2) and the cooling medium circuit (3). A control device (9) selectively allows either a heating medium or a cooling medium to flow through the battery temperature regulation heat exchanger (7) and the radiator (8).
The present invention comprises: a first compressor (10A) and a second compressor (10B); a condenser (5) that radiates heat to a heating medium or to outside air, by using a refrigerant (R); a refrigeration circuit (1) including a first evaporator (4) that absorbs heat from inside air using the refrigerant (R) that has passed through the condenser (5) and has been expanded by a first expansion valve (11), and a second evaporator (6) that absorbs heat from a cooling medium or the outside air, by using the refrigerant (R) that has passed through the condenser (5) and has been expanded by a second expansion valve (12); a heating medium circuit (2) including a radiator (61) that radiates heat to a heating target using a heating medium pump (16) and a heating medium (H); and a cooling medium circuit (3) including a heat absorber (62) that absorbs heat from a cooling target using a cooling medium pump (36) and a cooling medium (L). In the present invention, at least one of the following is performed: the radiation of heat to the heating medium in the condenser (5); and the absorption of heat from the cooling medium in the second evaporator (4).
2751931-a-bab1-ccdefgg (wherein R represents one or both of Sm and Ce; and indexes a, b, c, d, e, f and g represent numbers that satisfy 0 < a ≤ 0.12, 0 ≤ b ≤ 0.12, 0.13 ≤ c ≤ 0.27, 3.20 ≤ d + e + f + g ≤ 3.75, 0 ≤ e ≤ 0.14, 0 ≤ f ≤ 0.05 and 0 ≤ g ≤ 0.35); an alkaline storage battery which uses this hydrogen storage alloy for alkaline storage batteries in a negative electrode; and a vehicle which comprises this alkaline storage battery as a power supply for a motor.
This centrifugal compressor (10) comprises a rotating body (60) and a motor (31). The motor (31) comprises a rotor (33) having a cylindrical member (41). The rotating body (60) has an axial path (63) and a plurality of paths (71, 90). The centrifugal compressor (10) comprises a first member (61) having a shroud surface (67, 83), a second member (62) having a hub surface (68), and a plurality of impellers (69, 80) extending from one among the shroud surface (67, 83) and the hub surface (68) to the other. The plurality of impellers (69, 80) are provided to one among the first member (61) and the second member (62). The cylindrical member (41) has the first member (61) and the second member (62) therein, forms a portion of each path (71), and opens into a motor compartment (18).
Provided is a method for manufacturing a power storage module, the method including: a first step for preparing a laminate; a second step for positioning a resin component having a hole into which a detection wire is inserted on the laminate so that a gap is produced with respect to a drawn portion of the detection wire in a sealed body while the resin component faces toward the drawn portion, and inserting a portion of the detection wire drawn out from the drawn portion into the hole in the resin component; and a third step for filling a space between the drawn portion and the resin component with a resin using a mold, thereby forming a filler resin layer that is integrated with the sealed body to obtain a power storage module that includes the laminate, the resin component, and the filler resin layer.
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
H01M 50/569 - Connexions conductrices de courant pour les cellules ou les batteries - Détails de construction des connexions conductrices de courant pour détecter les conditions à l'intérieur des cellules ou des batteries, p.ex. détails des bornes de détection de tension
In a co-rotating scroll compressor according to the present invention, a housing (6) has a scroll chamber (65), a reservoir chamber (8), and a partitioning wall (60b). A driving scroll (30) is rotationally driven around a driving axis (O1) by a driving mechanism (10). A driven scroll (40) is rotationally driven around a driven axis (O2) by the driving scroll (30) and a driven mechanism (20), while being eccentric to the driving scroll (30). The partitioning wall (60b) is provided with a support section (64). The support section (64) supports the driving scroll (30) in a manner allowing the same to be rotationally driven around the driving axis (O1) by a bearing (51) that is positioned between the same and the support section (64). The support section (64) supports the driven scroll (40) in a manner allowing the same to be rotationally driven around the driven axis (O2) by a driven shaft section (55). Formed in the support section (64) is a supply passage (2a) that supplies a liquid refrigerant (18) within the reservoir chamber (8) to at least one of a site of sliding and the bearing (51).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
This co-rotating scroll compressor is provided with, in a housing (60): an intake chamber (61A) that serves as a scroll chamber to accommodate a scroll compressor unit (80); a retention chamber (70A) that is adjacent to the intake chamber (61A), with a first base wall (63) that serves as a partition wall separating the retention chamber and the intake chamber; and a lubricating oil supply channel (63H). The lubricating oil supply channel (63H) is in communication with an oil storage unit (83) provided in the intake chamber (61A) and supplies a lubricating oil to the scroll compressor unit (80), a second bearing (72), a third bearing (73), and the like. Partway along the lubricating oil supply channel (63H), a lubricating oil cooling unit (78) is provided that cools the lubricating oil within the lubricating oil supply channel (63H) using a liquid refrigerant in the retention chamber (70A).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
F04C 29/02 - Lubrification; Séparation du lubrifiant
In this dual rotation-type scroll compressor, a scroll compression part (80) is accommodated in an intake chamber (61A). A pressure adjustment chamber (76) is provided to one side in the thrust direction of the scroll compression part (80). The pressure adjustment chamber reduces a thrust load which acts on the scroll compression part in the thrust direction when a fluid of an intake pressure within the intake chamber, a discharge pressure within a discharge chamber, or an intermediate pressure between the intake pressure and the discharge pressure is introduced into the pressure adjustment chamber. The discharge pressure of the fluid introduced into the pressure adjustment chamber (76) counters the discharge pressure which acts on the scroll compression part (80) from the other side in the thrust direction. Due to this configuration, the thrust load of the scroll compression part (80) acting on the housing (60) toward one side in the thrust direction is reduced.
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
This vehicle heat management system (10) comprises a control unit (90). The control unit (90) can switch operation modes of the vehicle heat management system (10) among a battery cooling mode, a battery warm-up mode, and a heating auxiliary mode. In the battery cooling mode, cooling water cooled by a second refrigerant in a second heat exchanger (82) cools a battery (32) by absorbing heat from the battery (32). In the battery warm-up mode, cooling water where heat has been dissipated from the second refrigerant in the second heat exchanger (82) heats the battery (32) by dissipating heat to the battery (32). In the heating auxiliary mode, the cooling water is heated by the second refrigerant dissipating heat to the cooling water in the second heat exchanger (82), and a first refrigerant is heated by the heated cooling water dissipating heat to the first refrigerant in a first heat exchanger (81).
B60L 58/24 - Procédés ou agencements de circuits pour surveiller ou commander des batteries ou des piles à combustible, spécialement adaptés pour des véhicules électriques pour la surveillance et la commande des batteries pour la commande de la température des batteries
B60H 1/22 - Dispositifs de chauffage, de refroidissement ou de ventilation la chaleur étant prélevée autrement que de l'installation de propulsion
F25B 1/00 - Machines, installations ou systèmes à compression à cycle irréversible
H01M 10/613 - Refroidissement ou maintien du froid
A production device 41 is equipped with: fluid injection nozzles 43 which are pressed against areas surrounding the openings 31A of through-holes 31 in a side surface 23c of a sealed object 3 and inject a fluid F into a plurality of inner spaces S via the through-holes 31; a first restraining member 44, which restrains a first region F1 of the sealed object 3 where the plurality of through-holes 31 have been disposed; and a second restraining member 45, which has been disposed independently of the first restraining member 44 and restrains a second region F2 including the inner spaces S, along the stacking direction.
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
A bobbin conveyance device (10) comprises: a first conveyance unit (11) that performs a bobbin passing operation; an exchanger that performs a bobbin replacement operation; a hanger detection unit (16) that detects the presence or absence of a hanger (H) in an exchange position (C), and the type of the hanger (H); a bobbin detection unit (17) that detects the presence or absence of a bobbin (B); and a control unit that controls the first conveyance unit (11) and the exchanger on the basis of detection results from the detection units (16, 17). The control unit causes a carriage of the first conveyance unit (11) to move in circle in a state in which the exchanger is not allowed to perform the bobbin replacement operation before performing a bobbin reception operation, and determines whether a bobbin (B) is hung on a full-bobbin hanger (Hf) on the basis of the detection results from the detection units (16, 17) during the circular movement. If it is determined that the bobbin (B) is hung on the full-bobbin hanger (Hf), the control unit determines that a bobbin (B) hanging error is present with respect to the hanger (H).
A bearing cover body (40B) having a cover part (47) and a boss part (48) is coupled to a front surface (411) of a driven end plate (41). A recessed part (50) forming an ejection valve chamber (44) is recessed in the front surface (411), and an ejection valve (57) is accommodated in the ejection valve chamber (44). A part of the ejection valve chamber (44) and a part of the ejection valve (57) are covered with the cover part (47). An internal space (48A) of the boss part (48) is in communication with the ejection part (65C), and is also in communication with the ejection valve chamber (44). A bearing (72) that rotatably supports a driven scroll (40) with respect to a housing (60) is provided on an outer peripheral surface of the boss part (48).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
F04C 29/12 - Dispositions pour l'admission ou l'échappement du fluide de travail, p.ex. caractéristiques de structure de l'admission ou de l'échappement
In this scroll compressor, a first scroll (30) has a first end plate (31) and a first spiral body (33), and a second scroll (40) has a second end plate (41) and a second spiral body (43). The first end plate (31) has an end-plate-side step part (31C), and the second spiral body (43) has a spiral-body-side step part (43C). A bypass hole (48) is formed in the second end plate (41). The bypass hole (48) allows communication between a first compression chamber (50A) and a discharge area (55). The first compression chamber (50A) and the bypass hole (48) are communicated, and the first compression chamber (50A) and the second compression chamber (50B) are communicated via the end-plate-side step part (31C) and the spiral-body-side step part (43C), whereby the bypass hole (48) and a second compression chamber (50B) are communicated via the first compression chamber (50A).
F04C 18/02 - Pompes à piston rotatif spécialement adaptées pour les fluides compressibles du type à engrènement, c. à d. avec un mouvement de translation circulaire des organes coopérants, chaque organe possédant le même nombre de dents ou de parties équivalentes de prise
F04C 28/28 - Dispositions de sécurité; Surveillance
A first gap (81), a second gap (82), a third gap (83), and a fourth gap (84) are provided inside a second insertion hole (26). The pressure of air is gradually reduced as the air flows from the first gap (81) to the fourth gap (84). Accordingly, the pressure of the air which has flown into the second insertion hole (26) from a gap (90) between a second plate (16) and the back surface (43a) of a second impeller (43) is efficiently reduced. As a result, a portion of air compressed by the second impeller (43) and discharged into a second discharge chamber is prevented from entering a motor chamber through the second insertion hole (26). By simply using a shim plate (77), it becomes possible to provide the third gap (83) and the fourth gap (84) inside the second insertion hole (26). As a result, it becomes unnecessary to perform additional work on a rotary shaft (41) in order to provide the third gap (83) and the fourth gap (84) inside the second insertion hole (26).
H01G 11/12 - Condensateurs hybrides ou EDL à empilement
H01G 11/28 - Condensateurs hybrides, c. à d. ayant des électrodes positive et négative différentes; Condensateurs électriques à double couche [EDL]; Procédés de fabrication desdits condensateurs ou de leurs composants Électrodes caractérisées par leur structure, p.ex. multicouches, selon la porosité ou les caractéristiques de surface agencées ou disposées sur un collecteur de courant; Couches ou phases entre les électrodes et les collecteurs de courant, p.ex. adhésifs
H01G 11/62 - Condensateurs hybrides, c. à d. ayant des électrodes positive et négative différentes; Condensateurs électriques à double couche [EDL]; Procédés de fabrication desdits condensateurs ou de leurs composants Électrolytes Électrolytes liquides caractérisés par le soluté, p.ex. sels, anions ou cations
H01G 11/68 - Collecteurs de courant caractérisés par leur matériau
H01M 4/02 - PROCÉDÉS OU MOYENS POUR LA CONVERSION DIRECTE DE L'ÉNERGIE CHIMIQUE EN ÉNERGIE ÉLECTRIQUE, p.ex. BATTERIES Électrodes Électrodes composées d'un ou comprenant un matériau actif
H01M 4/13 - PROCÉDÉS OU MOYENS POUR LA CONVERSION DIRECTE DE L'ÉNERGIE CHIMIQUE EN ÉNERGIE ÉLECTRIQUE, p.ex. BATTERIES Électrodes Électrodes composées d'un ou comprenant un matériau actif Électrodes pour accumulateurs à électrolyte non aqueux, p.ex. pour accumulateurs au lithium; Leurs procédés de fabrication
H01M 10/0568 - Matériaux liquides caracterisés par les solutés
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
In a centrifugal compressor (10), the speed of air flowing into a second insertion hole (26) from a gap (70) between a back surface (43a) of a second impeller (43) and a second plate (16) is increased as a result of passing through a throttle section (61). As a consequence, the pressure of the air after passing through the throttle section (61) becomes lower than the pressure of the air before passing through the throttle section (61). A communication section (62) extends in a direction intersecting the flow direction of the air that has passed through the throttle section (61). Therefore, the air that has passed through the throttle section (61) is unlikely to flow into a motor chamber (18) through the communication section (62). A discharge passage (63) extends in the flow direction of the air that has passed through the throttle section (61). As a result, the air that has passed through the throttle section (61) easily flows into the discharge passage (63). Therefore, the air flowing into the second insertion hole (26) from the gap (70) between the back surface (43a) of the second impeller (43) and the second plate (16) is easily discharged through the discharge passage (63) to the outside of a housing (11) while increasing in pressure.
This power storage module has a body part provided with a plurality of communication paths, and a liquid injection part that is attached to one side surface of the body part and has a plurality of liquid injection ports communicating with the respective communication paths. A plurality of liquid injection frame bodies provided to the body part include a first liquid injection frame body in which a portion of the liquid injection frame body protrudes from the body part to at least one side in a first direction, and a second liquid injection frame body in which a portion of the liquid injection frame body protrudes from the body part to at least the other side in the first direction. With respect to the protrusion amounts by which the portions of the liquid injection frame bodies protrude from the body part to the one side in the first direction, the protrusion amount of the first liquid injection frame body is greater than the protrusion amount of the second liquid injection frame body, and with respect to the protrusion amounts by which the portions of the liquid injection frame bodies protrude from the body part to the other side in the first direction, the protrusion amount of the second liquid injection frame body is greater than the protrusion amount of the first liquid injection frame body.
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/103 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie caractérisés par leur forme ou leur structure physique prismatique ou rectangulaire
H01M 50/184 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par leur forme ou leur structure
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
H01M 50/209 - Bâtis, modules ou blocs de multiples batteries ou de multiples cellules caractérisés par leur forme adaptés aux cellules prismatiques ou rectangulaires
H01M 50/505 - Interconnecteurs pour connecter les bornes des batteries adjacentes; Interconnecteurs pour connecter les cellules en dehors d'un boîtier de batterie comprenant une barre omnibus unique
H01M 50/548 - Bornes caractérisées par la position des terminaux sur les cellules sur des côtés opposés de la cellule
H01M 50/636 - Fermeture ou scellement des ouvertures de remplissage
Provided is a centrifugal compressor (10), wherein air that is introduced from an introduction passage (56) into an introduction space (61) and flows from the introduction space (61) toward the interior of a motor chamber (18) is constricted by a constriction section (62). Thus, the pressure in the introduction space (61) becomes greater than the pressure in the motor chamber (18). Furthermore, the pressure of the air introduced from the introduction passage (56) into the introduction space (61) becomes greater than the pressure of air in a gap (67) between a back surface (43a) of a second impeller (43) and a second plate (16). As a result, a portion of the air compressed by the second impeller (43) and discharged into a second discharge chamber (34) is suppressed from entering the motor chamber (18) via a second penetrating hole (26). A portion of the air compressed by the second impeller (43), at a temperature lower than the temperature of the air discharged into the second discharge chamber (34), is introduced from the introduction passage (56), via the introduction space (61) and the constriction section (62), into the motor chamber (18). Thus, a motor (20) is cooled efficiently.
444-CMC in the active material layer (12) is 0.3-0.6 mass%. The content of carbon nanotubes in the active material layer (12) is 0.005-0.08 mass%. The active material layer (12) includes a main body portion (12a) and an edge portion (12b) surrounding the main body portion (12a). The maximum thickness of the edge portion (12b) is 104% of the thickness of the main body portion (12a). In a plan view of the electrode (10) in the thickness direction of the active material layer (12), the maximum dimension of the edge portion (12b) from the boundary between the main body portion (12a) and the edge portion (12b) to the tip of the edge portion (12b) is 5 mm.
H01M 4/13 - PROCÉDÉS OU MOYENS POUR LA CONVERSION DIRECTE DE L'ÉNERGIE CHIMIQUE EN ÉNERGIE ÉLECTRIQUE, p.ex. BATTERIES Électrodes Électrodes composées d'un ou comprenant un matériau actif Électrodes pour accumulateurs à électrolyte non aqueux, p.ex. pour accumulateurs au lithium; Leurs procédés de fabrication
H01G 11/28 - Condensateurs hybrides, c. à d. ayant des électrodes positive et négative différentes; Condensateurs électriques à double couche [EDL]; Procédés de fabrication desdits condensateurs ou de leurs composants Électrodes caractérisées par leur structure, p.ex. multicouches, selon la porosité ou les caractéristiques de surface agencées ou disposées sur un collecteur de courant; Couches ou phases entre les électrodes et les collecteurs de courant, p.ex. adhésifs
H01G 11/30 - Condensateurs hybrides, c. à d. ayant des électrodes positive et négative différentes; Condensateurs électriques à double couche [EDL]; Procédés de fabrication desdits condensateurs ou de leurs composants Électrodes caractérisées par leur matériau
H01G 11/36 - Nanostructures, p.ex. nanofibres, nanotubes ou fullerènes
H01M 4/32 - PROCÉDÉS OU MOYENS POUR LA CONVERSION DIRECTE DE L'ÉNERGIE CHIMIQUE EN ÉNERGIE ÉLECTRIQUE, p.ex. BATTERIES Électrodes Électrodes composées d'un ou comprenant un matériau actif Électrodes pour accumulateurs alcalins Électrodes en oxyde ou en hydroxyde de nickel
H01M 4/62 - Emploi de substances spécifiées inactives comme ingrédients pour les masses actives, p.ex. liants, charges
This centrifugal compressor is provided with: an air recirculation flow channel (74) that extends along a cooling water flow channel (60), and that allows air that has cooled a motor (20), a first radial bearing (53), and the like to be returned to a first suction passage (33); and a partition wall (85) that extends along the cooling water flow channel (60), that isolates the air recirculation flow channel (74) and the cooling water flow channel (60), and that exchanges heat between the air flowing through the air recirculation flow channel (74) and cooling water flowing through the cooling water flow channel (60). The heat of the air flowing through the air recirculation flow channel (74) is released to the cooling water flowing through the cooling water flow channel (60) via the partition wall (85).
Provided is an electric power storage module comprising: an electrode stack that includes a plurality of electrodes, the electrodes having current collectors and detection wires that are bonded to the current collectors; and an encapsulating body for encapsulating interior spaces between adjacent current collectors, the encapsulating body being provided so as to surround the electrode stack. The encapsulating body has a plurality of sealing members that are made of resin and are welded to each of the plurality of electrodes, a plurality of spacers that are made of resin and are disposed between adjacent sealing members so as to form the interior spaces together with the sealing members, and an outside surface that is formed due to the plurality of sealing members and the plurality of spacers being welded to each other. Each of the plurality of sealing members is welded to the current collectors and to the detection wires that are bonded to the current collectors. The detection wires extend from the current collectors and are drawn out from the outside surface along a second direction that intersects a first direction.
H01M 50/569 - Connexions conductrices de courant pour les cellules ou les batteries - Détails de construction des connexions conductrices de courant pour détecter les conditions à l'intérieur des cellules ou des batteries, p.ex. détails des bornes de détection de tension
H01G 11/12 - Condensateurs hybrides ou EDL à empilement
H01G 11/70 - Collecteurs de courant caractérisés par leur structure
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/184 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par leur forme ou leur structure
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
This power storage device comprises a laminate 2 and a sealing body 3. A bipolar electrode 21 has: a current collector 24 comprising a surface 24a and a surface 24b on the reverse side from the surface 24a; a positive electrode active material layer 25 provided on the surface 24a; and a negative electrode active material layer 26 provided on the surface 24b. The sealing body 3 has a seal member 4. Viewed from the lamination direction D of the laminate 2, the current collector 24 has a rectangular shape in which the length of at least one side exceeds 1 m, and has: a first metal foil 241 that constitutes the surface 24a; a second metal foil 242 that constitutes the surface 24b and is thinner than the first metal foil 241; and an adhesive layer 243 that is provided between the first metal foil 241 and the second metal foil 242 and adheres the first metal foil 241 and the second metal foil 242. The adhesive layer 243 is thinner than the second metal foil 242.
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
G05B 13/02 - Systèmes de commande adaptatifs, c. à d. systèmes se réglant eux-mêmes automatiquement pour obtenir un rendement optimal suivant un critère prédéterminé électriques
This electric power storage module comprises: an electrode laminate including current collectors and having a plurality of electrodes layered along a first direction; a first resin unit that forms an internal space between the current collectors adjacent in the first direction, and that is provided to the electrode laminate so as to seal the internal space; and a sealing body that is joined to the first resin unit. The outer surface of the first resin unit includes a first edge surface along the first direction, a second edge surface that opposes the first edge surface along the first direction, and four outer surfaces that extend along the first direction so as to connect the first edge surface and the second edge surface.
H01M 50/103 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie caractérisés par leur forme ou leur structure physique prismatique ou rectangulaire
H01M 50/184 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par leur forme ou leur structure
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
H01M 50/197 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par le matériau ayant une structure en couches
76.
POWER STORAGE MODULE AND METHOD FOR MANUFACTURING POWER STORAGE MODULE
This power storage module comprises: an electrode laminate; a sealing body provided to the electrode laminate; and an injected-resin part that is joined to the sealing body. A plurality of electrodes each include a current collector having a rectangular shape when viewed from a first direction. The sealing body includes: a welded end section where outer peripheral edges of a plurality of frame members are welded to each other; and a plurality of through-holes that communicate with the outside of a liquid inlet surface of the welded end section. The injected-resin part includes: a body section partially covering the liquid inlet surface; and a plurality of protruding frame sections that, when viewed from a second direction intersecting the liquid inlet surface, surround openings that respectively connect to the plurality of through-holes.
H01M 50/184 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par leur forme ou leur structure
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
This fuel injection control device controls the supply amount of fuel to an internal combustion engine, and comprises: an intake air amount detection unit that is provided to an intake air passage of the internal combustion engine and acquires a detection value relating to an intake air amount of the internal combustion engine; a fuel injection valve that is provided to a supply path for fuel and injects fuel in a gaseous state; a pre-injection pressure acquisition unit that acquires pre-injection pressure, which is the pressure on the upstream side of the fuel injection valve of the supply path; a post-injection pressure acquisition unit that acquires post-injection pressure, which is the pressure in a space in which fuel is injected by the fuel injection valve; and a fuel control unit that, when the fuel injection valve is to inject fuel at sub-sonic speed, causes the fuel injection valve to inject fuel in an injection time that is longer than when the fuel injection valve injects fuel at sonic speed, on the basis of the detection value from the intake air detection unit, the pre-injection pressure, and the post injection-pressure.
F02B 43/00 - Moteurs caractérisés par leur fonctionnement avec des combustibles gazeux; Ensembles fonctionnels comportant de tels moteurs
F02M 21/02 - Appareils pour alimenter les moteurs en combustibles non liquides, p.ex. en combustibles gazeux stockés sous forme liquide en combustibles gazeux
F02D 41/32 - Commande de l'injection de combustible du type à basse pression
In a heat exchanger (50) for warming up a battery by using condensation heat from a refrigerant in a refrigerating cycle, an inlet porous pipe (56) disposed on the upstream side has a heat exchanging area smaller than the respective heat exchanging areas of other porous pipes (57). Even when a gas region is generated in a flow path for the refrigerant flowing through the inlet porous pipe (56) and the temperature of the inlet porous pipe (56) becomes higher than the temperatures of the other porous pipes (57), the amount of heat dissipation of the inlet porous pipe (56) is small. Thus, it is possible to suppress the temperature distribution of the battery from becoming uneven.
H01M 10/651 - Moyens de commande de la température associés de façon structurelle avec les éléments caractérisés par des paramètres spécifiés par une valeur numérique ou une formule mathématique, p.ex. rapports, tailles ou concentrations
H01M 10/6556 - Composants solides comprenant des canaux d'écoulement ou des tubes pour un échange de chaleur
H01M 10/6569 - Fluides qui subissent un changement ou une transition de phase liquide-gaz, p.ex. évaporation ou condensation
79.
SYSTEM FOR ADJUSTING TEMPERATURE OF BATTERY, AND VEHICULAR SYSTEM FOR MANAGING HEAT
In a first refrigerant circuit (1) according to the present invention, a first compressor (10), a battery heat exchanger (11), a fixed aperture (12), a first refrigerant/coolant heat exchanger (4), a first expansion valve (13), and an outside-air heat exchanger (14) are connected in the stated order by first refrigerant flow paths (15). According to control of switching of a circulation path switching unit (16) that is performed by a control unit (6), the first refrigerant circuit (1) operates in a battery-cooling mode in which a plurality of battery cells are cooled, a battery-warming mode in which the plurality of battery cells are warmed, a coolant-heating battery-equalizing mode in which the coolant is heated and the plurality of battery cells are brought to equilibrium, or a heat-medium-cooling battery-equalizing mode in which the coolant is cooled and the plurality of battery cells are brought to equilibrium.
A heat exchange system for a moving body according to the present invention comprises a heat pump device (100) and a condenser (200). The heat pump device (100) includes an electric compressor (1), a heat exchanger (9), and an evaporator (11). The electric compressor (1) has a housing (10), an inlet (16a), an outlet (16b), etc. In the heat pump device (100), the electric compressor (1) is disposed between the condenser (9) and the evaporator (11), and the heat exchanger (9), the electric compressor (1), and the evaporator (11) are integrated. The condenser (200) is connected to the heat pump device (100) and is positioned outside the heat pump device (100). The condenser (200) heats air by exchanging heat between a refrigerant discharged from the outlet (16b) and air supplied into a room (CR).
A fuel cell system (10) is equipped with a storage tank (30) for storing water contained in a discharge gas discharged from a fuel cell stack. The storage tank (30) has: a feed opening (35) which is connected to an air layer (38) inside the storage tank (30) and through which the discharge gas discharged from a fuel cell stack is fed into the storage tank (30); a gas-liquid separation part (36) for separating the water from the discharge gas fed through the feed opening (35); a storage part (37) for storing the water separated in the gas-liquid separation part (36); a heat exchange part (50) which performs heat exchange between the water stored in the storage part (37) and air ejected from an electric compressor; and a discharge opening (39) which is connected to the air layer (38) and through which the discharge gas from which the water has been separated in the gas-liquid separation part (36) is discharged to a turbine.
H01M 8/04111 - Dispositions pour la commande des paramètres des réactifs, p.ex. de la pression ou de la concentration des réactifs gazeux utilisant un assemblage turbine compresseur
H01M 8/04 - Dispositions auxiliaires, p.ex. pour la commande de la pression ou pour la circulation des fluides
H01M 8/04029 - Dispositions auxiliaires, p.ex. pour la commande de la pression ou pour la circulation des fluides relatives à l’échange de chaleur Échange de chaleur par des liquides
This fiber structure comprises a layered body (20) and selvedge (40). The layered body (20) includes: at least one warp layer (21) that has a plurality of warp threads (23) extending in a first direction (X); and at least two weft layers (22) that each have a plurality of weft threads (24) extending in a second direction (Y). In an end section (20a) of the layered body (20), the selvedge yarn (40) is interlaced with the weft threads (24) of weft layers (22) positioned at the two ends in a layering direction (Z). Some warp threads (23) serve as a binding yarn for binding the warp layer (21) and the weft layers (22). The selvedge (40) is a continuous yarn. The weft threads (24) of the weft layers (22) positioned at the two ends in the layering direction (Z) are a spun yarn.
An ammonia engine system (10) comprises: a combustor (40) configured to generate a combustion gas by combusting ammonia mixed with air; a reforming catalyst (23b) configured to be warmed by the combustion gas; an ammonia engine (11) configured to receive supply of hydrogen discharged from the reforming catalyst (23b); and a control unit (37). The control unit (37) is configured to execute, at the start of the ammonia engine (11), a combustion process of causing the combustor (40) to generate the combustion gas, and a supply process of supplying ammonia together with air to the reforming catalyst (23b). The control unit (37) is configured to start the supply process after starting the combustion process.
F02B 43/10 - Moteurs ou ensembles fonctionnels caractérisés par l'utilisation d'autres gaz spécifiques, p.ex. l'acétylène, le gaz oxhydrique
C01B 3/04 - Production d'hydrogène ou de mélanges gazeux contenant de l'hydrogène par décomposition de composés inorganiques, p.ex. de l'ammoniac
F02M 21/02 - Appareils pour alimenter les moteurs en combustibles non liquides, p.ex. en combustibles gazeux stockés sous forme liquide en combustibles gazeux
F02D 19/02 - Commande des moteurs caractérisés par l'emploi de combustible non liquide, de combustibles multiples ou de substances non combustibles ajoutées au mélange carburant particulière aux moteurs fonctionnant avec des combustibles gazeux
This centrifugal compressor is provided with a rotational shaft, a motor, an impeller, a housing, a shaft path extending in an axial direction inside the rotational shaft, and a radial path extending in a radial direction from the shaft path. The housing has an impeller room, a motor room, and a suction port. The motor has a stator and a rotor. The stator has a stator core and a coil end that is a part of a coil wound on the stator core. The coil end protrudes from an end surface of the stator core. The shaft path opens toward the suction port. The radial path is in communication with the motor room. The rotational shaft has a protrusion part protruding toward the coil end. The protrusion part includes a part of the radial path. Air sucked into the shaft path from the suction port flows to the coil end via the radial path.
F04D 29/58 - Refroidissement; Chauffage; Réduction du transfert de chaleur
F04D 17/04 - Pompes à flux radial spécialement adaptées aux fluides compressibles, p.ex. pompes centrifuges; Pompes hélicocentrifuges spécialement adaptées aux fluides compressibles ayant des étages non centrifuges, p.ex. centripètes du type à flux transversal
F04D 29/05 - Arbres, paliers ou leurs assemblages spécialement adaptés aux pompes pour fluides compressibles
F04D 29/054 - Dispositions pour le raccordement ou l'assemblage des arbres
This battery system (10) comprises: a battery (11), a temperature sensor (T1) that is configured so as to detect the temperature of the battery; a heater (12) that is configured so as to heat the battery; and a battery control unit (13). The battery control unit is configured so as to detect the state of the battery and control an operation for charging the battery and an operation for raising the temperature of the battery by using the heater. The battery control unit is further configured so as to, when the charging rate or voltage of the battery is below a prescribed threshold level during charging of the battery, control the heater in accordance with a comparison between the temperature of the battery and a preset threshold temperature and, when the charging rate or voltage of the battery is above the threshold level, monitor whether the battery has reached a fully charged state in a state in which the heater has been stopped.
H01M 10/48 - Accumulateurs combinés à des dispositions pour mesurer, tester ou indiquer l'état des éléments, p.ex. le niveau ou la densité de l'électrolyte
Provided is a battery temperature adjustment system capable of suitably suppressing reduction in performance of each battery cell caused by the temperature thereof. A battery temperature adjustment system according to the present invention comprises: a compressor 1; a first heat exchanger 3; first to eleventh battery cells 5a-5k; a second heat exchanger 7; a refrigerant flow path 9; an expansion valve 15; a first opening/closing valve 17; a second opening/closing valve 19; and a control device 25. The second heat exchanger 7 can exchange heat between the refrigerant and the first to eleventh battery cells 5a-5k. Upon receiving a temperature adjustment request for reducing variation of temperatures among the first to eleventh battery cells 5a-5k, the control device 25 prohibits flowing of the refrigerant between the first heat exchanger 3 and the second heat exchanger 7 by switching the first opening/closing valve 17 to a first prohibition state, and prohibits flowing of the refrigerant between the compressor 1 and the second heat exchanger 7 by switching the second opening/closing valve 19 to a second prohibition state.
In this invention, a deflection wall (50) is provided inside a first header (21). The deflection wall (50) deflects some of refrigerant flowing into the interior of the first header (21) from an inlet (28) and flowing through the interior of the first header (21) in the alignment direction (X1) of a plurality of refrigerant flow paths (41), to a direction that intersects the alignment direction (X1) of the plurality of refrigerant flow paths (41). This configuration prevents concentrated distribution of the refrigerant in a portion of the interior of the first header (21) distant from the inlet (28). As a result, the amount of refrigerant flowing in the refrigerant flow paths (41) located far from the inlet (28) is prevented from becoming larger than the amount of refrigerant flowing in the refrigerant flow paths (41) located closer to the inlet (28). Therefore, since the amount of refrigerant flowing through each of the refrigerant flow paths (41) becomes more likely to be equalized, variations in temperature distribution throughout a tube (40) are less likely to occur.
A combustor (40) has: a housing (41) having an open first end and a closed second end (41b); an introduction unit that introduces fuel and oxidizing gas into the housing (41) so that a tubular flow (F1) is generated within the housing (41); a spark plug (44) disposed at the second end (41b); and an ignition unit that generates a spark (P1) between a positive electrode (45) and a negative electrode (46) of the spark plug (44). The positive electrode (45) and the negative electrode (46) are arranged in a position such that a distance (L1) between the positive electrode (45) and the negative electrode (46) is shorter than a distance (L2) between the positive electrode (45) and an inner peripheral surface (41d) of the housing (41), so that a flame (P2) generated between the positive electrode (45) and the negative electrode (46) by the spark (P1) is formed only in a negative pressure region (A1) that is generated in a part of the housing (41).
F23Q 3/00 - Allumage à étincelles produites électriquement
F23C 13/02 - Appareils dans lesquels la combustion a lieu en présence de matériau catalytique caractérisés par des dispositions pour amorcer le processus, p.ex. pour amener le matériau catalytique à la température de fonctionnement
F23D 14/02 - Brûleurs à gaz avec prémélangeurs, c. à d. dans lesquels le combustible gazeux est mélangé à l'air de combustion en amont de la zone de combustion
F02D 19/02 - Commande des moteurs caractérisés par l'emploi de combustible non liquide, de combustibles multiples ou de substances non combustibles ajoutées au mélange carburant particulière aux moteurs fonctionnant avec des combustibles gazeux
F02D 19/08 - Commande des moteurs caractérisés par l'emploi de combustible non liquide, de combustibles multiples ou de substances non combustibles ajoutées au mélange carburant particulière aux moteurs fonctionnant avec des combustibles multiples, p.ex. alternativement du fuel léger et du fuel lourd, et autres que les moteurs indifférents au combustible utilisé utilisant simultanément des combustibles multiples
This battery cooling system comprises a refrigeration cycle and a control circuit. The refrigeration cycle comprises a compressor, a condenser, a plurality of evaporators disposed corresponding to each of a plurality of batteries, a plurality of branch flow passages, and a plurality of pressure reducing devices disposed respectively in the plurality of branch flow passages. The control circuit determines whether a refrigerant downstream of the condenser and upstream of the plurality of pressure reducing devices is in a liquid state on the basis of detection results of a pressure and temperature of the refrigerant downstream of the condenser and upstream of the plurality of pressure reducing devices, and if the refrigerant upstream of the plurality of pressure reducing devices is not in a liquid state, increases a rotational speed of the compressor, and if it is determined that the refrigerant downstream of the condenser and upstream of the plurality of pressure reducing devices is in a liquid state, decreases the rotational speed of the compressor.
F25B 5/02 - Machines, installations ou systèmes à compression, avec plusieurs circuits d'évaporateurs, p.ex. pour faire varier la puissance frigorifique disposés en parallèle
F25B 1/00 - Machines, installations ou systèmes à compression à cycle irréversible
H01M 10/613 - Refroidissement ou maintien du froid
This centrifugal compressor (10) comprises a compressor impeller (49), a motor (31) having a rotor (33), and a radial bearing (51) which supports the rotor. An axial path (65) extending inside the rotor has an inlet (71) communicating with an intake port (22). A radial path (75) causes the axial path and a motor chamber (18) to communicate with each other. A diffuser flow path (76) is configured so that the air introduced into the motor chamber from the radial path is pressurized, and the pressurized air cools the radial bearing. In a portion, of the axial path, positioned further adjacent to the inlet than a rear surface (49a) of the compressor impeller in, the axial path has an increased diameter path (66) the diameter of which gradually increases away from the inlet.
This electrode comprises a current collector, and a positive electrode active material layer (102) formed on the surface of the current collector. The surface area of the positive electrode active material layer (102) is at least 1 m2. The positive electrode active material layer (102) comprises a main surface positioned on the side opposite from the surface facing the current collector, and groove sections (103) opened to the main surface. In a plan view of the main surface, the maximum distance D, which is the maximum value of a specific distance, is 60 mm or less. The specific distance is the shorter distance among a distance from an outer peripheral edge of the positive electrode active material layer (102) and a distance from the groove sections (103) at any point in an island part (104), which is a section of the main surface where the groove sections (103) are not provided.
H01M 4/13 - PROCÉDÉS OU MOYENS POUR LA CONVERSION DIRECTE DE L'ÉNERGIE CHIMIQUE EN ÉNERGIE ÉLECTRIQUE, p.ex. BATTERIES Électrodes Électrodes composées d'un ou comprenant un matériau actif Électrodes pour accumulateurs à électrolyte non aqueux, p.ex. pour accumulateurs au lithium; Leurs procédés de fabrication
A battery temperature control system (1) comprises a refrigeration cycle (10) and a control circuit (100). The refrigeration cycle (10) comprises a compressor (11), a first heat exchanger (12), a plurality of second heat exchangers (15), and a four-way valve (40). The four-way valve (40) is configured so as to be switchable between a forward flow state and a reverse flow state. The refrigeration cycle (10) also comprises a first pressure-reducing device (13) disposed in a flow channel (32), and second pressure-reducing devices (14) respectively disposed in a plurality of branched flow channels (34). The first pressure-reducing device (13) is a variable expansion valve of which the opening degree can be adjusted by using a command signal from the control circuit. The second pressure-reducing devices (14) are fixed orifices.
F25B 13/00 - Machines, installations ou systèmes à compression, à cycle réversible
F25B 1/00 - Machines, installations ou systèmes à compression à cycle irréversible
F25B 1/053 - Machines, installations ou systèmes à compression à cycle irréversible à compresseur rotatif du type à turbine
F25B 5/02 - Machines, installations ou systèmes à compression, avec plusieurs circuits d'évaporateurs, p.ex. pour faire varier la puissance frigorifique disposés en parallèle
F25B 6/02 - Machines, installations ou systèmes à compression, avec plusieurs circuits de condenseurs disposés en parallèle
H01M 10/613 - Refroidissement ou maintien du froid
This attachment structure for an on-vehicle antenna device is for attaching, to the roof of a vehicle, an on-vehicle antenna device having an antenna body and an antenna cover. The attaching structure comprises: a metal base part to which the antenna body is attached; and a resin roof to which the antenna cover is attached so as to cover the antenna body. The resin roof has an opening, through which the base part or the antenna body is inserted, on an inner side of the outer peripheral part of the antenna cover. The outer peripheral part of the antenna cover is joined to the resin roof around the opening by means of an adhesive agent.
This autonomous vehicle executes a determination process. In the determination process, a control device acquires, from a map creation unit, map image data as pre-determination map image data, and determines whether map data acquired from the map creation unit is good or poor, using a good/poor determination result regarding the acquired pre-determination map image data and a good/poor determination result based on the accuracy of estimation when an own-position is estimated using the map data.
This internal combustion engine is provided with a cylinder liner, a cylinder head, a suction valve, an exhaust valve, a piston, and an injector. The cylinder head and the suction valve are configured to form a swirl flow in a combustion room. The injector injects fuel from a central part in the combustion room outward in a radial direction of the cylinder liner. The piston includes a peripheral wall (520) and a plurality of protruding walls (530). The protruding walls (530) have a normal facing surface (532) and an opposite facing surface (534). The normal facing surface (532) is configured so that momentum of flame (B1) returning to the central part in the combustion room via the normal facing surface (532) after colliding with the peripheral wall (520) becomes greater than momentum of flame (B2) returning to the central part in the combustion room via the opposite facing surface (534) after colliding with the peripheral wall (520).
F02B 23/06 - Autres moteurs caractérisés par des chambres de combustion d'une forme ou d'une structure particulières pour améliorer le fonctionnement avec allumage par compression l'espace de combustion étant disposé dans le piston moteur
F02B 23/00 - Autres moteurs caractérisés par des chambres de combustion d'une forme ou d'une structure particulières pour améliorer le fonctionnement
F02B 23/10 - Autres moteurs caractérisés par des chambres de combustion d'une forme ou d'une structure particulières pour améliorer le fonctionnement avec allumage commandé avec admission séparée de l'air et du combustible dans le cylindre
F02F 3/26 - Pistons comportant une chambre de combustion ménagée dans la tête de piston
A functional roof (1) comprises: a functional layer (10); a sealing layer (20) having; a front surface protection material (30) comprising an optically transparent resin; a back surface protection material (40); and a barrier layer (50). The barrier layer (50) includes a front side barrier sheet (50A) and a back side barrier sheet (50B). The front side barrier sheet (50A) includes a front surface covering part (51). The back side barrier sheet (50B) includes a back surface covering part (52). The front side barrier sheet (50A) has a front side overhanging part that overhangs from an edge part of the front surface covering part and that is separate from the front surface protection material, and the front side overhanging part is connected to the back side barrier sheet in a state where a surrounding end face is covered, or the back side barrier sheet (50B) has a back side overhanging part (53) that overhangs from an edge part of the back surface covering part (52) and that is separate from the back surface protection material (40), and the back side overhanging part (53) is connected to the front side barrier sheet (50A) in a state where the surrounding end face (S3) is covered.
This power storage device comprises: an electrode having a current collector and a positive electrode active material layer provided to a surface of the current collector; and a sealing member provided to the surface of the current collector so as to surround the positive electrode active material layer when viewed from the lamination direction. The current collector includes: a first metal foil including a surface; a second metal foil provided on a side opposite to the positive electrode active material layer relative to the first metal foil; and a bonding layer that is provided between the first metal foil and the second metal foil and that bonds the first metal foil and the second metal foil. The sealing member includes: a sealing portion welded to the surface; and a sealing portion welded to a side surface, of the current collector, including a side surface of the bonding layer. The heat resistant temperature of the bonding layer is greater than the melting point of each of the sealing portions.
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/204 - Bâtis, modules ou blocs de multiples batteries ou de multiples cellules
H01M 50/489 - Séparateurs, membranes, diaphragmes ou éléments d’espacement dans les cellules caractérisés par leurs propriétés physiques, p.ex. degré de gonflement, hydrophilicité ou propriétés pour court-circuiter
The present invention provides an electric power storage module which comprises an electrode stack, a sealing body that is provided on the electrode stack, and a frame member that is bonded to the sealing body, while being configured separately from the sealing body, wherein: the sealing body comprises a welded end part that is formed by welding a sealing material and an end of a spacer to each other, and a communicating pore that has an opening in the outer surface of the welded end part; the frame member comprises a frame part that surrounds the opening of the communicating pore; and the frame part has a first end face that is bonded to the outer surface so as to surround the opening, and a second end face that is formed so as to surround the opening, while being opposite to the first end face.
H01M 50/186 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par la position des éléments de scellement
H01G 11/12 - Condensateurs hybrides ou EDL à empilement
H01M 10/0585 - Structure ou fabrication d'accumulateurs ayant uniquement des éléments de structure plats, c. à d. des électrodes positives plates, des électrodes négatives plates et des séparateurs plats
H01M 50/103 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie caractérisés par leur forme ou leur structure physique prismatique ou rectangulaire
H01M 50/184 - Boîtiers, fourreaux ou enveloppes primaires d’une seule cellule ou d’une seule batterie Éléments de scellement caractérisés par leur forme ou leur structure
A battery cooling system (1) comprises: a refrigeration cycle (10); and a control circuit (100). The refrigeration cycle (10) is provided with: a compressor (11); a condenser (12); a plurality of evaporators (15) respectively arranged in correspondence to a plurality of batteries (2); a plurality of branch channels (33, 34); and a plurality of pressure reduction devices (14) arranged in the branch channels (33, 34). The condenser (12) exchanges heat between a refrigerant supplied from the compressor (1) and outside air present around the condenser (12). The control circuit (100) stores, in advance, data defining the correlation among the outside air temperature, the battery temperature, and the target rotational speed of the compressor which can maintain the refrigerant in the branch channels (33, 34) in a liquid state. The control circuit (100) determines the target rotational speed corresponding to the result of detecting the outside air temperature and the battery temperature by referring to the data, and controls the rotational speed of the compressor to the target rotational speed.
F25B 1/00 - Machines, installations ou systèmes à compression à cycle irréversible
F25B 5/02 - Machines, installations ou systèmes à compression, avec plusieurs circuits d'évaporateurs, p.ex. pour faire varier la puissance frigorifique disposés en parallèle
H01M 10/613 - Refroidissement ou maintien du froid
