Abstract: Systems and methods for managing a user identity on a mobile device are provided. The system comprises the mobile device comprising a user agent and a client application, the user agent and the client application in communication with each other. The system further comprises an identity provider in communication with the mobile device, and a client service in communication with the mobile device. The user agent is configured to communicate with the identity provider and retrieve the user identity for the client application, and the client application is configured to transmit the user identity to the client service.

Abstract: Evaporator, notably for motor vehicle air-conditioning circuit. According to the invention, the evaporator (1), which comprises three layers—upstream (2), intermediate (3) and downstream (4)—through which there flows a coolant that enters the evaporator (1) via the intermediate layer (3) and leaves the evaporator via the upstream layer (2) to cool an air flow (A) passing in succession across said upstream (2), intermediate (3) and downstream (4) layers, comprises means (5E) for inducing a pressure drop between the outlet of the intermediate layer (3) and the inlet of the downstream layer (4).

Abstract: Systems and methods for managing a user identity on a mobile device are provided. The system comprises the mobile device comprising a user agent and a client application, the user agent and the client application in communication with each other. The system further comprises an identity provider in communication with the mobile device, and a client service in communication with the mobile device. The user agent is configured to communicate with the identity provider and retrieve the user identity for the client application, and the client application is configured to transmit the user identity to the client service.

Abstract: Systems and methods for managing a user identity on a mobile device are provided. The system comprises the mobile device comprising a user agent and a client application, the user agent and the client application in communication with each other. The system further comprises an identity provider in communication with the mobile device, and a client service in communication with the mobile device. The user agent is configured to communicate with the identity provider and retrieve the user identity for the client application, and the client application is configured to transmit the user identity to the client service.

Abstract: The invention relates to a control process for an air conditioning system. The air conditioning system comprises a thermal loop (1) used as a heat pump and an electrical heating device (2). The process calculates a global heating capacity (HCglo) in function of the temperature chosen by the passenger, the speed of the blower and the temperature of the exterior air. Then, the process calculates a heating capacity (HC1) of the thermal loop (1) and compares this heating capacity (HC1) of the thermal loop to the global heating capacity (HCglo). If the global heating capacity (HCglo) is superior to the heating capacity (HC1) of the thermal loop, the process determines a heating capacity (HC2) of the electrical heating device (2). This heating capacity (HC2) of the electrical heating device (2) added to the heating capacity (HC1) of the thermal loop (1) allows to obtain the global heating capacity (HCglo) required in function of the temperature selected by the passenger.

Abstract: Evaporator, notably for motor vehicle air-conditioning circuit. According to the invention, the evaporator (1), which comprises three layers—upstream (2), intermediate (3) and downstream (4)—through which there flows a coolant that enters the evaporator (1) via the intermediate layer (3) and leaves the evaporator via the upstream layer (2) to cool an air flow (A) passing in succession across said upstream (2), intermediate (3) and downstream (4) layers, comprises means (5E) for inducing a pressure drop between the outlet of the intermediate layer (3) and the inlet of the downstream layer (4).

Abstract: The invention relates to a heat exchanger (1) arranged to perform a heat exchange between a coolant (2) and an internal air flow (3) and comprising a bundle (8) formed by a first layer (4) and a second layer (6) through which the coolant flows, said first layer (4) being defined by a first front face (5a) and a second front face (5b) and said second layer (6) being defined by a third front face (5c) and a fourth front face (5d). At least three of the front faces (5a, 5b, 5c, 5d) are different and arranged in different planes.

Abstract: Systems and methods for managing a user identity on a mobile device are provided. The system comprises the mobile device comprising a user agent and a client application, the user agent and the client application in communication with each other. The system further comprises an identity provider in communication with the mobile device, and a client service in communication with the mobile device. The user agent is configured to communicate with the identity provider and retrieve the user identity for the client application, and the client application is configured to transmit the user identity to the client service.

Abstract: Systems and methods for managing a user identity on a mobile device are provided. The system comprises the mobile device comprising a user agent and a client application, the user agent and the client application in communication with each other. The system further comprises an identity provider in communication with the mobile device, and a client service in communication with the mobile device. The user agent is configured to communicate with the identity provider and retrieve the user identity for the client application, and the client application is configured to transmit the user identity to the client service.

Abstract: Systems and methods for managing a user identity on a mobile device are provided. The system comprises the mobile device comprising a user agent and a client application, the user agent and the client application in communication with each other. The system further comprises an identity provider in communication with the mobile device, and a client service in communication with the mobile device. The user agent is configured to communicate with the identity provider and retrieve the user identity for the client application, and the client application is configured to transmit the user identity to the client service.

Abstract: Systems and methods for managing a user identity on a mobile device are provided. The system comprises the mobile device comprising a user agent and a client application, the user agent and the client application in communication with each other. The system further comprises an identity provider in communication with the mobile device, and a client service in communication with the mobile device. The user agent is configured to communicate with the identity provider and retrieve the user identity for the client application, and the client application is configured to transmit the user identity to the client service.

Abstract: The invention relates to a control process for an air conditioning system. The air conditioning system comprises a thermal loop (1) used as a heat pump and an electrical heating device (2). The process calculates a global heating capacity (HCglo) in function of the temperature chosen by the passenger, the speed of the blower and the temperature of the exterior air. Then, the process calculates a heating capacity (HC1) of the thermal loop (1) and compares this heating capacity (HC1) of the thermal loop to the global heating capacity (HCglo). If the global heating capacity (HCglo) is superior to the heating capacity (HC1) of the thermal loop, the process determines a heating capacity (HC2) of the electrical heating device (2). This heating capacity (HC2) of the electrical heating device (2) added to the heating capacity (HC1) of the thermal loop (1) allows to obtain the global heating capacity (HCglo) required in function of the temperature selected by the passenger.

Abstract: The invention relates to an air conditioning device (1) comprising elements (15,16,13,14,19,22,P1,P2;17) of an A/C loop (4) inside which circulates a cooling fluid FR, of a primary circuit (5) inside which circulates a coolant fluid FC and of a secondary circuit (6) inside which circulates a coolant liquid LC. The air conditioning device (1) comprises a support (100) on which the elements (15,16,13,14,19,22,P1,P2;17) are fixed.

Abstract: The invention relates to a distribution unit (22) that is able to manage the circulation of a cooling fluid FR in an A/C loop (4). The distribution unit (22) comprises nine inlets E1, E2, E3, E4, E5, E6, E7, E8, E9 of the cooling fluid FR inside the distribution unit (22) and four outlets S1, S2, S3, S4 of the cooling fluid FR outside the distribution unit (22). Each outlet S1, S2, S3, S4 is linked with at least two inlets E1, E2, E3, E4, E5, E6, E7, E8, E9.

Abstract: The invention relates to a heating, ventilating and/or air conditioning device (1) comprising an A/C loop (6) inside which a refrigerating fluid FR circulates and a secondary loop (10) inside which a cooling fluid FC circulates. The said device (1) comprising a first heat exchanger (8) between the refrigerating fluid FR and the cooling fluid FC, a second heat exchanger (9) between the refrigerating fluid FR and the cooling fluid FC. The secondary loop comprises a third heat exchanger (14) between the cooling fluid FC and the air, and a fourth heat exchanger (15) between the cooling fluid FC and the air. The secondary loop (10) comprises derivation means (22) of the cooling fluid FC from an outlet point (21) of the cooling fluid FC outside the third heat exchanger (14) and an inlet point (23) of the cooling fluid FC inside the fourth heat exchanger (15).

Abstract: A topology verification process for controlling a Personal Communication Services (PCS) system which includes a plurality of Cordless Fixed Parts (CFP)s. The process includes mapping the spatial relationships of the CFPs utilizing Received Signal Strength Indication (RSSI) vectors resulting from test signals transmitted between the CFPs, to establish the topology of the system; repeating the mapping process after any disruption of power to the system, and comparing the results. Any significant change in the results, would be highly indicative of a potential change in the geographic area of operation of the system, and can be used to initiate disablement of the system operation. Additional confirmation that the system has not been reconfigured (and hence moved), may be had by matching a unique identifier for each CFP against a stored set of identifiers which specify the particular port that the CFP was connected to immediately prior to any disruption in power to the system.