mhurhangee/ep-ind-claims huggingface dataset:
A system for an elevator, comprising: an energy exchanger coupled to the at least one battery (202a, 202b); an energy storage device coupled to the energy exchanger; wherein the energy exchanger is configured to enable bi-directional power flow between the battery and the energy storage device, and is further configured to let a DC bus float between a first voltage and a second voltage; wherein the energy storage device is configured to provide energy to the elevator when demand for energy by the elevator exceeds a threshold; wherein the energy storage device is configured to recapture energy that is not recaptured by the at least one battery (202a, 202b) during a run of the elevator; and wherein the energy storage device is configured to charge from the at least one battery (202a, 202b) when the energy storage device discharges beyond a threshold. characterized in that the system comprises at least one lead acid battery (202a, 202b); wherein the battery (202a, 202b) is configured to provide a majority of energy required by a load; and the energy storage device is configured to provide any deficiency in power in a peak shaving way. an energy exchanger coupled to the at least one battery (202a, 202b); an energy storage device coupled to the energy exchanger; wherein the energy exchanger is configured to enable bi-directional power flow between the battery and the energy storage device, and is further configured to let a DC bus float between a first voltage and a second voltage; wherein the energy storage device is configured to provide energy to the elevator when demand for energy by the elevator exceeds a threshold; wherein the energy storage device is configured to recapture energy that is not recaptured by the at least one battery (202a, 202b) during a run of the elevator; and wherein the energy storage device is configured to charge from the at least one battery (202a, 202b) when the energy storage device discharges beyond a threshold. characterized in that the system comprises at least one lead acid battery (202a, 202b); wherein the battery (202a, 202b) is configured to provide a majority of energy required by a load; and the energy storage device is configured to provide any deficiency in power in a peak shaving way.
Device having a seat belt device for a vehicle seat, having a seat belt, the belt tongue of which in an applied state is releasably connected to a belt buckle on the seat, wherein the belt buckle is guided via at least one wire cable through a sleeve-shaped deflection element which defines the course of the wire cable between its connecting point on the seat and its connecting point on the belt buckle, wherein the sleeve-shaped deflection element impresses onto the belt buckle in the applied state a use position in which the belt buckle is subjected to tilting and/or twisting moments due to the acting belt forces (F G), characterized in that the sleeve-shaped deflection element impresses onto the belt buckle in its unused position a placement position in which the belt buckle lies flat on a seat surface of the vehicle seat, and that the sleeve-shaped deflection element has a target deformation point at which the deflection element deforms in a head-on collision, viz., when the belt buckle is displaced from its use position into a crash position in which the tilting or twisting moments acting upon the belt buckle are reduced.
A radio communication system comprising at least one base station and at least one mobile terminal wherein said radio communication system provides information to said mobile terminal via said base station that performs radio communication with the mobile terminal, wherein: the base station is configured to perform point-to-point radio communication with the mobile terminal and point-to-multipoint radio communication with the mobile terminal; the mobile terminal is configured to receive first downlink information that has been transmitted from the base station by point-to-multipoint radio communication receivable by a plurality of the mobile terminals, and configured to receive second downlink information that has been transmitted from the base station by point-to-point communication, the first downlink information including vehicular traffic information; the mobile terminal is configured to transmit uplink information to the base station by point-to-point radio communication, the uplink information including position information of the mobile terminal and the position information being used for updating the vehicular traffic information; the base station is configured to transmit, by the point-to-point communication, the second downlink information to the mobile terminal that transmitted the uplink information, when the base station acquires the uplink information; and the mobile terminal that transmitted the uplink information is configured to obtain information to be used in the mobile terminal when information processing by using both the first downlink information and the second downlink information received from the base station is performed. the base station is configured to perform point-to-point radio communication with the mobile terminal and point-to-multipoint radio communication with the mobile terminal; the mobile terminal is configured to receive first downlink information that has been transmitted from the base station by point-to-multipoint radio communication receivable by a plurality of the mobile terminals, and configured to receive second downlink information that has been transmitted from the base station by point-to-point communication, the first downlink information including vehicular traffic information; the mobile terminal is configured to transmit uplink information to the base station by point-to-point radio communication, the uplink information including position information of the mobile terminal and the position information being used for updating the vehicular traffic information; the base station is configured to transmit, by the point-to-point communication, the second downlink information to the mobile terminal that transmitted the uplink information, when the base station acquires the uplink information; and the mobile terminal that transmitted the uplink information is configured to obtain information to be used in the mobile terminal when information processing by using both the first downlink information and the second downlink information received from the base station is performed.
Container obtained by blow-moulding or stretch-blow-moulding from a blank made of plastic, which comprises a body, a shoulder in the continuation of the body at an upper end of the latter, and a neck in the continuation of the shoulder, the shoulder being articulated between two stable positions, these being a deployed position in which the shoulder projects from the body and a retracted position in which the shoulder is at least partially depressed within the body, the shoulder being articulated so as to be able to adopt, in addition to the deployed position and the retracted position, a third stable position that is intermediate between the deployed position and the retracted position, the shoulder comprising a peripheral section and a central section, a first articulation being defined at a join between the peripheral section and the body, a second articulation being defined at a join between the peripheral section and the central section, a third articulation being defined by the join between the central section and a section below the neck, this container being characterized in that the peripheral section and the body define, at the point where they meet, whether in the retracted position or in the intermediate position, an axially projecting ridge, the bottom of the container comprising, at its centre, a vault that defines a hollow recess and, at its periphery, a setback that is complementary with the ridge.
A process for preparing silylated monocarboxylic acids by reacting C 2 -C 10 -monocarboxylic acids with halosilanes of the general formula SiHal 4-x R x in which Hal is a halogen atom selected from the group of fluorine, chlorine, bromine and iodine, R is independently hydrogen, C 1 -C 10 -alkyl or aryl and x is an integer of 0 to 3 to form hydrogen halide in the presence of an auxiliary base, wherein the auxiliary base and the hydrogen halide form a salt which forms two immiscible phases with the product of value or the solution of the product of value in a suitable solvent and is removed. Hal is a halogen atom selected from the group of fluorine, chlorine, bromine and iodine, R is independently hydrogen, C 1 -C 10 -alkyl or aryl and x is an integer of 0 to 3
An energy efficient adsorbent regeneration process comprising: passing a feed air to an air compression section to provide a pressurized air feed stream; feeding the pressurized air feed stream for a first pre-determined time period to an adsorber (122, 124) operating at a first pressure to adsorb impurities in feed air onto one or more adsorbents (126, 128, 126', 128') within the adsorber; stopping pressurized air flow to the adsorber and depressurizing the adsorber (122, 124) to a second pressure that is lower than the first pressure; regenerating one or more adsorbents (126, 128, 126', 128') in a first regeneration step by flowing unheated regeneration gas through the adsorber operating at the second pressure for a second pre-determined time period, the temperature of the unheated regeneration gas being in the range of from 1.1 to 16.7 °C (2 °F to 30 °F) below the pressurized feed air temperature; further regenerating one or more adsorbents (126, 128, 126', 128') in a second regeneration step by flowing heated regeneration gas at a temperature of from 148.9 °C to 260.0 °C (300 °F to 500 °F) through the adsorber operating at the second pressure for a third pre-determined time period; cooling the one or more adsorbents (126, 128, 126', 128') by flowing adsorbent cooling gas through the adsorber at the second pressure for a fourth pre-determined time period; stopping the flow of adsorbent cooling gas and repressurizing the adsorber to the first pressure to begin feeding pressurized air. passing a feed air to an air compression section to provide a pressurized air feed stream; feeding the pressurized air feed stream for a first pre-determined time period to an adsorber (122, 124) operating at a first pressure to adsorb impurities in feed air onto one or more adsorbents (126, 128, 126', 128') within the adsorber; stopping pressurized air flow to the adsorber and depressurizing the adsorber (122, 124) to a second pressure that is lower than the first pressure; regenerating one or more adsorbents (126, 128, 126', 128') in a first regeneration step by flowing unheated regeneration gas through the adsorber operating at the second pressure for a second pre-determined time period, the temperature of the unheated regeneration gas being in the range of from 1.1 to 16.7 °C (2 °F to 30 °F) below the pressurized feed air temperature; further regenerating one or more adsorbents (126, 128, 126', 128') in a second regeneration step by flowing heated regeneration gas at a temperature of from 148.9 °C to 260.0 °C (300 °F to 500 °F) through the adsorber operating at the second pressure for a third pre-determined time period; cooling the one or more adsorbents (126, 128, 126', 128') by flowing adsorbent cooling gas through the adsorber at the second pressure for a fourth pre-determined time period; stopping the flow of adsorbent cooling gas and repressurizing the adsorber to the first pressure to begin feeding pressurized air.
An isolated anti-CXCR4 antibody, or one of its functional fragments, said functional fragment being selected among the fragments Fv, Fab, (Fab')2, Fab', scFv, scFv-Fc and diabodies, characterized in that it comprises: - a light chain comprising CDR-L1, CDR-L2 and CDR-L3 comprising respectively the amino acid sequence SEQ ID Nos. 1, 2 and 3; and a heavy chain comprising CDR-H1, CDR-H2 and CDR-H3 comprising respectively the amino acid sequence SEQ ID Nos. 4, 5 and 6; or - a light chain comprising CDR-L1, CDR-L2 and CDR-L3 comprising respectively the amino acid sequence SEQ ID Nos. 1, 2 and 30; and a heavy chain comprising CDR-H1, CDR-H2 and CDR-H3 comprising respectively the amino acid sequence SEQ ID Nos. 31, 32 and 33. - a light chain comprising CDR-L1, CDR-L2 and CDR-L3 comprising respectively the amino acid sequence SEQ ID Nos. 1, 2 and 3; and a heavy chain comprising CDR-H1, CDR-H2 and CDR-H3 comprising respectively the amino acid sequence SEQ ID Nos. 4, 5 and 6; or - a light chain comprising CDR-L1, CDR-L2 and CDR-L3 comprising respectively the amino acid sequence SEQ ID Nos. 1, 2 and 30; and a heavy chain comprising CDR-H1, CDR-H2 and CDR-H3 comprising respectively the amino acid sequence SEQ ID Nos. 31, 32 and 33.
Crash structure for a motor vehicle comprising a crash element (12a, 12b, 12c, 12d, 12e, 12f) which consists at least partly of a fibre composite material, and a support unit (16a, 16b, 16c, 16d, 16e, 16f) comprising at least one support element (14a, 14.1b, 14.2b, 14c, 14d, 14e, 14f), which support unit is connected to a support structure of the motor vehicle, wherein the crash element (12a, 12b, 12c, 12d, 12e, 12f) comprises waves running in longitudinal direction of the motor vehicle and wherein an end section of the crash element (12a, 12b, 12c, 12d, 12e, 12f) is supported at least by the at least one support element (14a, 14.1b, 14.2b, 14c, 14d, 14e, 14f) of the support unit (16a, 16b, 16c, 16d, 16e, 16f) running in transverse direction of the vehicle on the support structure of the motor vehicle, characterised in that the at least one support element (14a, 14.1b, 14.2b, 14c, 14d, 14e, 14f) of the support unit (16a, 16b, 16c, 16d, 16e, 16f) running in transverse direction of the motor vehicle is adjusted to the wave geometry of the crash element (12a, 12b, 12c, 12d, 12e, 12f) and rests flat on the end region of the crash element (12a, 12b, 12c, 12d, 12e, 12f).
A computing device comprising: a local agent adapted to be connected to a remote agent of a remote computing device for facilitating a remote session with a remote user; an operating system adapted for generating a request to enable a display device (124a-n) controlled by a display adapter; and a filter adapted for executing in a driver and in communication with the local agent, the filter further adapted for intercepting the request generated by the operating system, wherein the filter is adapted to transmit the request to the local agent when a remote user is active, and wherein the filter is adapted to transmit the request to the display adapter when said remote user is inactive. a local agent adapted to be connected to a remote agent of a remote computing device for facilitating a remote session with a remote user; an operating system adapted for generating a request to enable a display device (124a-n) controlled by a display adapter; and a filter adapted for executing in a driver and in communication with the local agent, the filter further adapted for intercepting the request generated by the operating system, wherein the filter is adapted to transmit the request to the local agent when a remote user is active, and wherein the filter is adapted to transmit the request to the display adapter when said remote user is inactive. wherein the filter is adapted to transmit the request to the local agent when a remote user is active, and wherein the filter is adapted to transmit the request to the display adapter when said remote user is inactive.
A computer-implemented method to allow single sign-on of a user operating a client device connected to an authentication server using a network connection, the method comprising the steps of: - receiving, at the client device, a user specific data element, wherein the user specific data element comprises biometric data relating to the user; - forming, at the client device, a key pair based on the user specific data element, a data element previously individually selected by the user and stored at the client device and an ID of the user, wherein the key pair comprises a public and a private key; - receiving, at the server, a request for authentication; - transmitting, from the server to the client device, a challenge data element; - signing, at the client device, the challenge data element using the private key; - transmitting, from the client device to the server, a signed version of the challenge data element, and - authenticating, at the server, the user by validating the signed version of the challenge data element using a previously stored public key relating to the user. - receiving, at the client device, a user specific data element, wherein the user specific data element comprises biometric data relating to the user; - forming, at the client device, a key pair based on the user specific data element, a data element previously individually selected by the user and stored at the client device and an ID of the user, wherein the key pair comprises a public and a private key; - receiving, at the server, a request for authentication; - transmitting, from the server to the client device, a challenge data element; - signing, at the client device, the challenge data element using the private key; - transmitting, from the client device to the server, a signed version of the challenge data element, and - authenticating, at the server, the user by validating the signed version of the challenge data element using a previously stored public key relating to the user.
Crease removal apparatus comprising a handle and a vapour discharge head connected to the handle, the vapour discharge head comprising a treatment face which is provided with at least one vapour outlet port and intended to be vertically opposite a garment to be made crease-free, the vapour discharge head further comprising a heating body delimiting an instantaneous vaporisation chamber comprising a vaporisation surface (18.1) on which a liquid injected into the instantaneous vaporisation chamber is intended to be vaporised, the instantaneous vaporisation chamber comprising a cleaning port which opens onto a face of the vapour discharge head that is separate from the treatment face, the crease removal apparatus further comprising a closure element which closes the cleaning port, the closure element being removable and accessible from outside the crease removal apparatus, characterised in that the cleaning port is situated opposite the vaporisation surface (18.1) to allow direct access to the vaporisation surface.
A communication method, wherein the method comprises: receiving (S602a), by an access device from a first mobility management entity, a first indication message, wherein the first indication message indicates that when a failure occurs in the first mobility management entity, a first terminal in a terminal group corresponding to a first group identifier is served by a second mobility management entity, wherein a context of the first terminal exists in the second mobility management entity; obtaining, by the access device, the first group identifier of the terminal group to which the first terminal served by the first mobility management entity belongs; sending (S610a, S612a), by the access device, a message related to the first terminal to the second mobility management entity based on the first group identifier when the failure occurs in the first mobility management entity; and receiving, by the second mobility management entity, the message from the access device. receiving (S602a), by an access device from a first mobility management entity, a first indication message, wherein the first indication message indicates that when a failure occurs in the first mobility management entity, a first terminal in a terminal group corresponding to a first group identifier is served by a second mobility management entity, wherein a context of the first terminal exists in the second mobility management entity; obtaining, by the access device, the first group identifier of the terminal group to which the first terminal served by the first mobility management entity belongs; sending (S610a, S612a), by the access device, a message related to the first terminal to the second mobility management entity based on the first group identifier when the failure occurs in the first mobility management entity; and receiving, by the second mobility management entity, the message from the access device.
A method for adapting a tire pressure monitoring device to a vehicle type, wherein the tire pressure monitoring device is configured for mounting on a wheel of a vehicle provided with pneumatic tires and has a device for measuring the air pressure (tire pressure) present in the pneumatic tire or for measuring a change of the tire pressure, optionally also one or more devices for measuring variables other than the tire pressure, an electrical circuit, of which at least a part operates digitally, for controlling the tire pressure monitoring device and optionally for processing the measured values delivered by the measuring devices, a memory (5, 6), in which a program for the circuit is stored, an electrical power source for the power supply of the tire pressure monitoring device, and a first transmitter operating in a first frequency range configured for the transmission of data from the tire pressure monitoring device to a first receiver located outside the tire pressure monitoring device, characterised in that merely a basic version of the program is initially stored in the memory (5, 6), from which a plurality of different versions of the program can be developed for a plurality of vehicle types, and in that an appropriate full version for a selected vehicle type is generated in that, for the selected vehicle type, certain program parameters are stored subsequently in the memory (5, 6) of the tire pressure monitoring device.
Ejection door (9, 19, 29, 39, 49) of the casing of a material crusher, particularly a scrap metal crusher comprising at least one aperture (10, 20, 30, 40, 50) of defined dimensions cut right through along the transversal axis of said door, characterized in that it comprises at least one deflector (12, 22, 32) positioned facing and above said aperture, on the internal surface of the ejection door (11, 31), forming a predefined acute angle of attack with said ejection door, said deflector being positioned parallel to the axis of rotation of the ejection door.