Exhaust aftertreatment sensor table mounting apparatus and method of installing the same

A sensor table mounting system includes an insulating blanket assembly and a senor table. The insulating blanket assembly is configured to surround an external housing surface of an exhaust aftertreatment component housing. The insulating blanket assembly includes an inner blanket surface, an outer blanket surface, and a first restraint. The outer blanket surface is opposite the inner blanket surface. The first restraint includes a first restraint first end that is fixed to the outer blanket surface. The sensor table includes a platform, a first standoff, a second standoff, a first footing, and a second footing. The first footing is offset from the platform by the first standoff and configured to be coupled to the first restraint. The second footing is offset from the platform by the second standoff and configured to be coupled to the first restraint.

Aftertreatment system for mixing a reductant in an exhaust gas flowing therethrough

An SCR system includes at least one catalyst, and an intake conduit. The intake conduit includes an intake conduit first sidewall, at least a portion of which defines a first curvature. An intake conduit second sidewall is coupled to the intake conduit first sidewall so as to define the intake conduit. A catalyst is fluidly coupled to the intake conduit through the intake conduit second sidewall. The intake conduit second sidewall is inclined at a first angle with respect to a longitudinal axis of the SCR system, such that an intake conduit second end cross-section of the intake conduit is smaller than an intake conduit first end cross-section. An intake conduit third sidewall is positioned at the intake conduit second end. The intake conduit is structured to produce an even flow split of the exhaust gas through the intake conduit internal volume towards the catalyst.

Aftertreatment system for mixing a reductant in an exhaust gas flowing therethrough

An SCR system includes at least one catalyst, and an intake conduit. The intake conduit includes an intake conduit first sidewall, at least a portion of which defines a first curvature. An intake conduit second sidewall is coupled to the intake conduit first sidewall so as to define the intake conduit. A catalyst is fluidly coupled to the intake conduit through the intake conduit second sidewall. The intake conduit second sidewall is inclined at a first angle with respect to a longitudinal axis of the SCR system, such that an intake conduit second end cross-section of the intake conduit is smaller than an intake conduit first end cross-section. An intake conduit third sidewall is positioned at the intake conduit second end. The intake conduit is structured to produce an even flow split of the exhaust gas through the intake conduit internal volume towards the catalyst.

SYSTEMS AND METHODS FOR SAMPLING EXHAUST GAS

A sampling assembly for an exhaust gas aftertreatment system includes a body layer, an outer bowl, a first sampler, and an inner bowl. The body layer defines a cylindrical passage. The outer bowl is coupled to the body layer. The first sampler extends circumferentially along the body layer to the outer bowl. The first sampler includes a first sampler channel and a first sampler aperture. The first sampler channel is configured to provide exhaust gas into the outer bowl. The first sampler aperture is configured to receive the exhaust gas from the cylindrical passage and provide the exhaust gas into the first sampler channel. The inner bowl is disposed at least partially within the outer bowl and configured to receive the exhaust gas from the outer bowl and provide the exhaust gas into the cylindrical passage.

Battery servicing apparatus

In an electrified vehicle, such as a battery electric vehicle, those with a hybrid powertrain, range extended electric vehicles, or hydrogen powered vehicles, integration of the battery may mean that space is very constrained. Typically this means that there is no feasible method to lift the battery to disengage it from the vehicle or to operate any engagement catches or locks etc. The disclosure provides a roller arrangement which has no translation or actuator requirements in order to allow the battery to have reduced frictional engagement with the battery compartment during installation or removal, and also to be well engaged with the battery compartment once installed. Rollers are provided which drop into recesses in the battery compartment at which point they are removed from load bearing engagement and thus, the recesses serve to locate the battery into the installed state in the compartment.

Exhaust aftertreatment sensor table mounting apparatus and method of installing the same

A sensor table mounting system includes an insulating blanket assembly and a senor table. The insulating blanket assembly is configured to surround an external housing surface of an exhaust aftertreatment component housing. The insulating blanket assembly includes an inner blanket surface, an outer blanket surface, and a first restraint. The outer blanket surface is opposite the inner blanket surface. The first restraint includes a first restraint first end that is fixed to the outer blanket surface. The sensor table includes a platform, a first standoff, a second standoff, a first footing, and a second footing. The first footing is offset from the platform by the first standoff and configured to be coupled to the first restraint. The second footing is offset from the platform by the second standoff and configured to be coupled to the first restraint.

Systems and methods for sampling exhaust gas

A sampling assembly for an exhaust gas aftertreatment system includes a body layer, an outer bowl, a first sampler, and an inner bowl. The body layer defines a cylindrical passage. The outer bowl is coupled to the body layer. The first sampler extends circumferentially along the body layer to the outer bowl. The first sampler includes a first sampler channel and a first sampler aperture. The first sampler channel is configured to provide exhaust gas into the outer bowl. The first sampler aperture is configured to receive the exhaust gas from the cylindrical passage and provide the exhaust gas into the first sampler channel. The inner bowl is disposed at least partially within the outer bowl and configured to receive the exhaust gas from the outer bowl and provide the exhaust gas into the cylindrical passage.

BATTERY SERVICING APPARATUS

In an electrified vehicle, such as a battery electric vehicle, those with a hybrid powertrain, range extended electric vehicles, or hydrogen powered vehicles, integration of the battery may mean that space is very constrained. Typically this means that there is no feasible method to lift the battery to disengage it from the vehicle or to operate any engagement catches or locks etc. The disclosure provides a roller arrangement which has no translation or actuator requirements in order to allow the battery to have reduced frictional engagement with the battery compartment during installation or removal, and also to be well engaged with the battery compartment once installed. Rollers are provided which drop into recesses in the battery compartment at which point they are removed from load bearing engagement and thus, the recesses serve to locate the battery into the installed state in the compartment.

AFTERTREATMENT SYSTEM FOR MIXING A REDUCTANT IN AN EXHAUST GAS FLOWING THERETHROUGH

An SCR system includes at least one catalyst, and an intake conduit. The intake conduit includes an intake conduit first sidewall, at least a portion of which defines a first curvature. An intake conduit second sidewall is coupled to the intake conduit first sidewall so as to define the intake conduit. A catalyst is fluidly coupled to the intake conduit through the intake conduit second sidewall. The intake conduit second sidewall is inclined at a first angle with respect to a longitudinal axis of the SCR system, such that an intake conduit second end cross-section of the intake conduit is smaller than an intake conduit first end cross-section. An intake conduit third sidewall is positioned at the intake conduit second end. The intake conduit is structured to produce an even flow split of the exhaust gas through the intake conduit internal volume towards the catalyst.

EXHAUST AFTERTREATMENT SENSOR TABLE MOUNTING APPARATUS AND METHOD OF INSTALLING THE SAME

A sensor table mounting system includes an insulating blanket assembly and a senor table. The insulating blanket assembly is configured to surround an external housing surface of an exhaust aftertreatment component housing. The insulating blanket assembly includes an inner blanket surface, an outer blanket surface, and a first restraint. The outer blanket surface is opposite the inner blanket surface. The first restraint includes a first restraint first end that is fixed to the outer blanket surface. The sensor table includes a platform, a first standoff, a second standoff, a first footing, and a second footing. The first footing is offset from the platform by the first standoff and configured to be coupled to the first restraint. The second footing is offset from the platform by the second standoff and configured to be coupled to the first restraint.

AFTERTREATMENT SYSTEM FOR AN ENGINE

A system includes an internal combustion engine. An aftertreatment system is coupled to the internal combustion engine to receive an exhaust gas stream. The aftertreatment system comprises one or modules. Each module includes one or more emission reducing devices to reduce undesirable constituents in the exhaust gas stream from the internal combustion engine.

Aftertreatment system for an engine

A system includes an internal combustion engine. An aftertreatment system is coupled to the internal combustion engine to receive an exhaust gas stream. The aftertreatment system comprises one or modules. Each module includes one or more emission reducing devices to reduce undesirable constituents in the exhaust gas stream from the internal combustion engine.

Aftertreatment system for mixing a reductant in an exhaust gas flowing therethrough

An SCR system includes at least one catalyst, and an intake conduit. The intake conduit includes an intake conduit first sidewall, at least a portion of which defines a first curvature. An intake conduit second sidewall is coupled to the intake conduit first sidewall so as to define the intake conduit. A catalyst is fluidly coupled to the intake conduit through the intake conduit second sidewall. The intake conduit second sidewall is inclined at a first angle with respect to a longitudinal axis of the SCR system, such that an intake conduit second end cross-section of the intake conduit is smaller than an intake conduit first end cross-section. An intake conduit third sidewall is positioned at the intake conduit second end. The intake conduit is structured to produce an even flow split of the exhaust gas through the intake conduit internal volume towards the catalyst.

Systems and methods for sampling exhaust gas

A sampling assembly 144 for use with a NOx sensor 146 comprises a body layer 206, an outer bowl 236, a first sampler 210 and a NOx sensor coupling 238. The body layer defines a cylindrical passage. The outer bowl is coupled to the first body layer and provides exhaust gas to the cylindrical passage. The first sampler is disposed within the cylindrical passage and extends circumferentially along the first body layer to the outer bowl. The first sampler has a first sampler channel 218 to provide exhaust gas into the outer bowl, and a first sampler aperture 214 to receive exhaust gas from the cylindrical passage and provide exhaust gas into the first sampler channel. The NOx sensor coupling is coupled to the outer bowl and comprises a NOx sensor coupling opening (240, fig 3) to receive the NOx sensor. A sampling assembly includes a second sampler 212.

Systems and methods for sampling exhaust gas

A sampling assembly for an exhaust gas aftertreatment system includes a body layer, an outer bowl, a first sampler, and an inner bowl. The body layer defines a cylindrical passage. The outer bowl is coupled to the body layer. The first sampler extends circumferentially along the body layer to the outer bowl. The first sampler includes a first sampler channel and a first sampler aperture. The first sampler channel is configured to provide exhaust gas into the outer bowl. The first sampler aperture is configured to receive the exhaust gas from the cylindrical passage and provide the exhaust gas into the first sampler channel. The inner bowl is disposed at least partially within the outer bowl and configured to receive the exhaust gas from the outer bowl and provide the exhaust gas into the cylindrical passage.

Sistemas e métodos para amostragem de gás de escape

sistemas e métodos para amostragem de gás de escape. trata-se de um conjunto de amostragem para um sistema de pós-tratamento de gás de escape que inclui uma camada de corpo, uma cuba externa, um primeiro amostrador e uma cuba interna. a camada de corpo define uma passagem cilíndrica. a cuba externa é acoplada à camada de corpo. o primeiro amostrador se estende circunferencialmente ao longo da camada de corpo até a cuba externa. o primeiro amostrador inclui um canal do primeiro amostrador e uma abertura do primeiro amostrador. o canal do primeiro amostrador é configurado para fornecer gás de escape à cuba externa. a abertura do primeiro amostrador é configurada para receber o gás de escape proveniente da passagem cilíndrica e fornecer o gás de escape ao canal do primeiro amostrador. a cuba interna está disposta ao menos parcialmente dentro da cuba externa e configurada para receber o gás de escape proveniente da cuba externa e fornecer o gás de escape à passagem cilíndrica.

Systems and methods for sampling exhaust gas

A sampling assembly for an exhaust gas aftertreatment system includes a body layer, an outer bowl, a first sampler, and an inner bowl. The body layer defines a cylindrical passage. The outer bowl is coupled to the body layer. The first sampler extends circumferentially along the body layer to the outer bowl. The first sampler includes a first sampler channel and a first sampler aperture. The first sampler channel is configured to provide exhaust gas into the outer bowl. The first sampler aperture is configured to receive the exhaust gas from the cylindrical passage and provide the exhaust gas into the first sampler channel. The inner bowl is disposed at least partially within the outer bowl and configured to receive the exhaust gas from the outer bowl and provide the exhaust gas into the cylindrical passage.

Systems and methods for sampling exhaust gas

A sampling assembly 144 has a body layer 206 defining a cylindrical passage, an outer bowl 236 coupled to the body layer, and first and second samplers 210, 212 extending circumferentially along the body layer to the outer bowl. The outer bowl receives exhaust gas and provides the exhaust gas to the cylindrical passage. The first sampler includes a first sampler channel (218, fig 3) that provides exhaust gas into the outer bowl, and a plurality of first sampler apertures 214, which receive exhaust gas from the cylindrical passage and provide exhaust gas into the first sampler channel. The second sampler has a second sampler channel (224, fig 8) that provides exhaust gas into the outer bowl, and a plurality of second sampler apertures 216, which receive exhaust gas from the cylindrical passage and provide exhaust gas into the second sampler channel. At least one of the first sampler and the second sampler is disposed within the cylindrical passage.

Systems and methods for sampling exhaust gas

Systems and methods for sampling exhaust gas

Common rail cooling plate

A cooling plate assembly to facilitate the cooling of electronic components, the cooling plate assembly including a cooling plate and a cooling chamber. The cooling chamber comprising a surface configured to receive a component to be cooled, a cooling chamber inlet, a common rail, a collection cavity, a plurality of cooling units fluidly coupled between the common rail and collection cavity, and a cooling chamber outlet fluidly coupled to the collection cavity.

Aftertreatment system for mixing a reductant in an exhaust gas flowing therethrough

Diagnostic system for monitoring a hydraulic system

A diagnostic system for determining a performance status of a hydraulic system of an electric work machine, the hydraulic system having a first hydraulic pump driven by an electric motor for pumping hydraulic fluid within the hydraulic system, the system comprising: a hydraulic diagnostic module configured to receive a first operating variable of the electric motor, the hydraulic diagnostic module further being configured to compare the first operating variable of the electric motor with a predetermined operational behavior and to derive a performance status of the hydraulic system based on the comparison.