mhurhangee/ep-ind-claims huggingface dataset:
Cylinder head housing for an internal combustion engine, which cylinder head housing forms at least two cylinders in an in-line arrangement, having receiving openings for in each case one outlet valve, which receiving openings are assigned to the individual cylinders of the internal combustion engine, having exhaust-gas channels which extend from said outlet valve receiving openings and which are merged into one exhaust-gas outlet channel, and having cooling channels (52 - 74, 78, 80), characterized in that the cooling channels (52 - 74, 78, 80) - comprise a top-section distributor channel which extends along the line of cylinders and which is connected to in each case one injector cooling channel provided for arrangement above each of the at least two cylinders, wherein the injector cooling channels are each connected to a multiplicity of top-section network channels which extend in different radial directions with respect to a longitudinal axis of the respective injector cooling channel and which are connected directly or indirectly to at least two top-section collecting channels, which top-section collecting channels extend along the line of cylinders and are arranged on different sides with respect to the line defined by the injector cooling channels, and/or - comprise a manifold distributor channel which extends along the line of outlet valve receiving openings of the at least two cylinders, wherein the manifold distributor channel is connected directly or indirectly to a multiplicity of manifold network channels which run along the exhaust-gas channels and which are directly or indirectly connected to a manifold collecting channel, which manifold collecting channel extends along the line of the outlet valve receiving openings of the at least two cylinders. - comprise a top-section distributor channel which extends along the line of cylinders and which is connected to in each case one injector cooling channel provided for arrangement above each of the at least two cylinders, wherein the injector cooling channels are each connected to a multiplicity of top-section network channels which extend in different radial directions with respect to a longitudinal axis of the respective injector cooling channel and which are connected directly or indirectly to at least two top-section collecting channels, which top-section collecting channels extend along the line of cylinders and are arranged on different sides with respect to the line defined by the injector cooling channels, and/or - comprise a manifold distributor channel which extends along the line of outlet valve receiving openings of the at least two cylinders, wherein the manifold distributor channel is connected directly or indirectly to a multiplicity of manifold network channels which run along the exhaust-gas channels and which are directly or indirectly connected to a manifold collecting channel, which manifold collecting channel extends along the line of the outlet valve receiving openings of the at least two cylinders.
A data retransmission method, comprising: obtaining, by a transmitting device, information to be transmitted for a t th time, wherein the information to be transmitted for the t th time comprises R t extension bit locations and information to be retransmitted for a (t -1) th time, and the extension bit locations comprise M t information bits that need to be retransmitted and L t check bits corresponding to the M t information bits, wherein the L t check bits are obtained by performing check encoding on the M t information bits, wherein R t, M t, t, and L t are integers greater than 0, t is greater than 1, and M t is less than R t; performing, by the transmitting device, Polar encoding on the information to be transmitted for the t th time, to obtain a codeword after the Polar encoding; obtaining, by the transmitting device, a codeword for (t-1) th retransmission based on the codeword after the Polar encoding; and transmitting, by the transmitting device, the codeword for (t-1) th retransmission. obtaining, by a transmitting device, information to be transmitted for a t th time, wherein the information to be transmitted for the t th time comprises R t extension bit locations and information to be retransmitted for a (t -1) th time, and the extension bit locations comprise M t information bits that need to be retransmitted and L t check bits corresponding to the M t information bits, wherein the L t check bits are obtained by performing check encoding on the M t information bits, wherein R t, M t, t, and L t are integers greater than 0, t is greater than 1, and M t is less than R t; performing, by the transmitting device, Polar encoding on the information to be transmitted for the t th time, to obtain a codeword after the Polar encoding; obtaining, by the transmitting device, a codeword for (t-1) th retransmission based on the codeword after the Polar encoding; and transmitting, by the transmitting device, the codeword for (t-1) th retransmission.
Filter device, at least consisting of an enclosure (3, 5) and a filter element that can be replaceably received therein, said filter element having at least two key (53, 56, 58) or lock parts engaging in correspondingly shaped lock or key parts in the enclosure (3, 5), which, when engaged in pairs with respect to one another, act together as - coding means and/or - fixing means and/or - functional means and/or - means to protect against replication, the respective key (53, 56, 58) or lock parts of the filter element being arranged on a ring which is attached to an end cap of the filter element and preferably forms a monobloc part of the end cap, the enclosure (3, 5) for receiving the ring comprising a receptacle that follows the outer contour of said ring, which comprises a sealing apparatus on at least one of its free end faces, which, with a lid part sealing the enclosure (3, 5) as a part thereof and/or with parts of the enclosure (3, 5) itself, seals the inside of the filter device from the environment, at least in this region of the system, characterised in that the respective sealing apparatus used follows the shape of the key parts (53, 56, 58). - coding means and/or - fixing means and/or - functional means and/or - means to protect against replication,
A cooling/heating switching unit for connection with a use-side unit and a heat-source-side unit to constitute an air conditioner (100, the cooling/heating switching unit characterized by comprising: a first-refrigerant-pipe fitting and a second-refrigerant-pipe fitting that have a first refrigerant pipe and a second refrigerant pipe connected thereto, respectively, wherein the first and second refrigerant pipes (24, 27) are linked to the heat-source-side unit; a third-refrigerant-pipe fitting that has a third refrigerant pipe connected thereto, wherein the third refrigerant pipe is linked to the use-side unit; a first expansion valve and a second expansion valve that are configured to control a flow direction of refrigerant from either the first-refrigerant-pipe fitting or the second-refrigerant-pipe fitting to the third-refrigerant-pipe fitting, via a fourth refrigerant pipe, based on a combination of an open state or a closed state of the first expansion valve and the second expansion valve; a housing that houses at least a part of the fourth refrigerant pipe; and a refrigerant leak detection sensor that is installed outside of the housing to detect leaked refrigerant, wherein said flow direction of refrigerant is associated with cooling or heating operation by the use-side unit, so that the air conditioner, when configured to include at least one heat-source-side unit and two or more combinations of the use-side unit and the cooling/heating switching unit, allows one use-side unit to execute cooling operation while another use-side unit to execute heating operation at the same time. a first-refrigerant-pipe fitting and a second-refrigerant-pipe fitting that have a first refrigerant pipe and a second refrigerant pipe connected thereto, respectively, wherein the first and second refrigerant pipes (24, 27) are linked to the heat-source-side unit; a third-refrigerant-pipe fitting that has a third refrigerant pipe connected thereto, wherein the third refrigerant pipe is linked to the use-side unit; a first expansion valve and a second expansion valve that are configured to control a flow direction of refrigerant from either the first-refrigerant-pipe fitting or the second-refrigerant-pipe fitting to the third-refrigerant-pipe fitting, via a fourth refrigerant pipe, based on a combination of an open state or a closed state of the first expansion valve and the second expansion valve; a housing that houses at least a part of the fourth refrigerant pipe; and a refrigerant leak detection sensor that is installed outside of the housing to detect leaked refrigerant, wherein said flow direction of refrigerant is associated with cooling or heating operation by the use-side unit, so that the air conditioner, when configured to include at least one heat-source-side unit and two or more combinations of the use-side unit and the cooling/heating switching unit, allows one use-side unit to execute cooling operation while another use-side unit to execute heating operation at the same time.
Clamping spring for a spring force terminal, having a clamping leg, a bearing leg and a limiting leg, wherein the clamping leg and the bearing leg are connected together via a bending joint, the limiting leg is integrally formed on an opposite end of the bearing leg from the bending joint, the clamping leg, the bearing leg and the bending joint are produced from a spring steel strip, and the spring steel strip has a greater width in the region of the bending joint than in the region of the clamping leg and of the bearing leg, characterized in that a clamping space is formed between the clamping leg, the bearing leg and the limiting leg, the limiting leg is embodied to prevent a conductor to be clamped from being plugged too far into the clamping space, and the limiting leg has a nose element for fixing the limiting leg in a desired position. the clamping leg and the bearing leg are connected together via a bending joint, the limiting leg is integrally formed on an opposite end of the bearing leg from the bending joint, the clamping leg, the bearing leg and the bending joint are produced from a spring steel strip, and the spring steel strip has a greater width in the region of the bending joint than in the region of the clamping leg and of the bearing leg, characterized in that a clamping space is formed between the clamping leg, the bearing leg and the limiting leg, the limiting leg is embodied to prevent a conductor to be clamped from being plugged too far into the clamping space, and the limiting leg has a nose element for fixing the limiting leg in a desired position.
A method in a network node for managing interruptions to Wide Area Network, WAN, operation of a wireless device, wherein the wireless device provides Proximity Services, ProSe, over at least two carriers (305, 310), the method comprising: determining a configuration of the wireless device for ProSe operation such that an aggregated interruption to the WAN operation of the wireless device is below an allowed interruption value, wherein determining the configuration comprises adapting a ProSe periodicity of at least one of the at least two carriers configured for ProSe operation at the wireless device to an adapted value as a function of a total number of carriers configured for ProSe operation at the wireless device.
A method for automated discovery of inventory, comprising: receiving, at a management instrumentation discovery server, a discovery message advertised from an internet of things, loT, network device; determining, in response to the discovery message, an identifier of the loT network device and a location of the loT network device included in the discovery message, and one or more capabilities of the loT network device based on the discovery message; automatically modifying a data structure of an inventory data store to include the identifier of the loT network device, the location of the loT network device, and the one or more capabilities of the loT network device, wherein the inventory data store identifies enterprise assets, including the loT network device, and configurations of the enterprise assets; and providing the modified data structure of the inventory data store to a controller such that the one or more capabilities of the loT network device are configured to be used by the controller. receiving, at a management instrumentation discovery server, a discovery message advertised from an internet of things, loT, network device; determining, in response to the discovery message, an identifier of the loT network device and a location of the loT network device included in the discovery message, and one or more capabilities of the loT network device based on the discovery message; automatically modifying a data structure of an inventory data store to include the identifier of the loT network device, the location of the loT network device, and the one or more capabilities of the loT network device, wherein the inventory data store identifies enterprise assets, including the loT network device, and configurations of the enterprise assets; and providing the modified data structure of the inventory data store to a controller such that the one or more capabilities of the loT network device are configured to be used by the controller.
A vehicle camera system comprising: a vehicle camera mounted in a vehicle configured to capture surroundings of the vehicle; and control circuitry configured to control an exposure level of an image captured by the vehicle camera, the control of the exposure level being based on brightness information of a detection area set within the image, the detection area being a portion of the captured image and configured to output the image having exposure control performed thereon to a display; characterised in that: the control circuitry is further configured to set the detection area with reference to a vanishing point in the image, and perform the exposure control based on the brightness information within the detection area; wherein the control circuitry is further configured to correct the vanishing point based on a course of the vehicle driving path in the area behind the vehicle. a vehicle camera mounted in a vehicle configured to capture surroundings of the vehicle; and control circuitry configured to control an exposure level of an image captured by the vehicle camera, the control of the exposure level being based on brightness information of a detection area set within the image, the detection area being a portion of the captured image and configured to output the image having exposure control performed thereon to a display; characterised in that: the control circuitry is further configured to set the detection area with reference to a vanishing point in the image, and perform the exposure control based on the brightness information within the detection area; wherein the control circuitry is further configured to correct the vanishing point based on a course of the vehicle driving path in the area behind the vehicle. the control circuitry is further configured to set the detection area with reference to a vanishing point in the image, and perform the exposure control based on the brightness information within the detection area; wherein the control circuitry is further configured to correct the vanishing point based on a course of the vehicle driving path in the area behind the vehicle.
A compound of Formula wherein each R 1 is independently alkyl or cycloalkyl; each R 2 R 3, R 4 and R 5 is independently selected from the group consisting of hydrogen, alkyl and cycloalkyl; each n is independently an integer from 0 to 6; M 1, M 2, X 1, and X 2 are each independently S or O; each W is independently S or O; Y is selected from the group consisting of alkyl, alkoxyalkylene, benzyl, and -R 6 -R 7 -R 8; R 6 is alkylene; R 7 is selected from the group consisting of a bond, alkylene; -C - and -C(R 9)-; R 8 is selected from the group consisting of alkyl, hydroxyalkylene, hydroxyalkyleneoxy, hydroxyl and alkoxy; and R 9 is alkyl. wherein each R 1 is independently alkyl or cycloalkyl; each R 2 R 3, R 4 and R 5 is independently selected from the group consisting of hydrogen, alkyl and cycloalkyl; each n is independently an integer from 0 to 6; M 1, M 2, X 1, and X 2 are each independently S or O; each W is independently S or O; Y is selected from the group consisting of alkyl, alkoxyalkylene, benzyl, and -R 6 -R 7 -R 8; R 6 is alkylene; R 7 is selected from the group consisting of a bond, alkylene; -C - and -C(R 9)-; R 8 is selected from the group consisting of alkyl, hydroxyalkylene, hydroxyalkyleneoxy, hydroxyl and alkoxy; and R 9 is alkyl.
A device for addressing the rows of a detection matrix for imaging by ionizing radiations, the detection matrix comprising a plurality of rows n of pixels and being produced on a substrate, the addressing device also being produced on said substrate only from thin film transistors TFT of N type or only from thin film transistors TFT of P type, and comprising a plurality of stages n suitable for delivering at their respective outputs signals (Sn) for switching between the high and low levels of a signal applied to switching devices at the output on a corresponding row of the matrix, each row n of the matrix being associated with a stage n, each stage comprising an input stage and an output stage, the input stage delivering an activation signal (SAn) for the output stage, the output stage delivering, in case of activation, said switching signal (Sn) for the corresponding row n.
Method for detecting and extracting gaseous fluid contained in a closed circuit functioning according to a Rankine cycle, said circuit comprising a multiplicity of components with, in succession, a working fluid circulation and compression pump, a heat exchanger associated with a hot source, an expansion machine, a cooling exchanger, a tank of working fluid and circulation ducts (50, 52, 54, 56, 58, 60) linking these components, characterized in that: - the temperature (T real) and the pressure (P real) of the working fluid are measured at a point of the circuit when this circuit is at rest, and - as soon as the measured pressure (P real) exceeds a threshold value (P saturated liquid) for a given ambient temperature, a gaseous fluid extraction device is activated to discharge the gaseous fluid out of the circuit. - the temperature (T real) and the pressure (P real) of the working fluid are measured at a point of the circuit when this circuit is at rest, and - as soon as the measured pressure (P real) exceeds a threshold value (P saturated liquid) for a given ambient temperature, a gaseous fluid extraction device is activated to discharge the gaseous fluid out of the circuit.
Access road blocking apparatus for braking a lorry in the case of its attempt to drive in an unauthorized manner into a protected zone, the access road blocking apparatus having a barrier element for obstructing an access road to the protected zone, the barrier element being connected to a load element, and the load element being arranged in front of the barrier element in an approach region, it being possible for the load element to be driven on by way of the lorry, characterized in that the load element is of at least partially elastic configuration, and in that the barrier element is configured as a concrete structure, the elastic configuration being such that, in the case of the impact, a part of the kinetic energy of the lorry is absorbed by the load element.
A process for purifying crude carbon dioxide fluid comprising at least one "light" impurity and at least one "heavy" impurity, said process comprising: cooling said crude carbon dioxide fluid above the triple point pressure of carbon dioxide by indirect heat exchange to produce cooled crude carbon dioxide fluid; feeding said cooled crude carbon dioxide fluid to a first column system for mass transfer separation to produce "light" impurity-enriched overhead vapor and "light" impurity-depleted carbon dioxide bottoms liquid comprising said "heavy" impurity; re-boiling said first column system by vaporizing "light" impurity-depleted bottoms liquid by indirect heat exchange to provide vapor for said first column system; feeding "light" impurity-depleted bottoms liquid from said first column system to a second column system for mass transfer separation to produce carbon dioxide-enriched overhead vapor and "heavy" impurity-enriched bottoms liquid; providing carbon dioxide-enriched liquid as reflux for said second column system; re-boiling said second column system by indirect heat exchange to provide vapor for said second column system; wherein said first and second column systems operate above the triple point pressure and below the critical pressure of carbon dioxide; wherein said process comprises at least one heat pump cycle using as working fluid carbon dioxide-containing fluid from said second column system; wherein said second column system is re-boiled by at least partially vaporizing at least one "heavy" impurity-enriched liquid in or taken from said second column system by indirect heat exchange against carbon dioxide-containing vapor from said second column system; wherein said overhead vapor from said first column system comprises carbon dioxide, characterized in that at least a portion of said carbon dioxide is recovered from said overhead vapor to produce "light" impurity-rich residual gas and recovered carbon dioxide; and said recovered carbon dioxide is fed to said second column system for mass transfer separation. cooling said crude carbon dioxide fluid above the triple point pressure of carbon dioxide by indirect heat exchange to produce cooled crude carbon dioxide fluid; feeding said cooled crude carbon dioxide fluid to a first column system for mass transfer separation to produce "light" impurity-enriched overhead vapor and "light" impurity-depleted carbon dioxide bottoms liquid comprising said "heavy" impurity; re-boiling said first column system by vaporizing "light" impurity-depleted bottoms liquid by indirect heat exchange to provide vapor for said first column system; feeding "light" impurity-depleted bottoms liquid from said first column system to a second column system for mass transfer separation to produce carbon dioxide-enriched overhead vapor and "heavy" impurity-enriched bottoms liquid; providing carbon dioxide-enriched liquid as reflux for said second column system; re-boiling said second column system by indirect heat exchange to provide vapor for said second column system;
A method for evaluating consumer products comprising the steps of: (a) analyzing untreated skin of a consumer and artificially transforming the untreated skin to a desired result to produce artificially transformed skin by applying a cover-up or by using image transformation; (b) treating the untreated skin with a product to produce treated skin; and (c) comparing the treated skin to the artificially transformed skin to yield a difference associated with a symbol, wherein at least two consumer products are evaluated and compared to artificially transformed skin, wherein the method is not a method for performing a mental act, or for treatment of the human body by surgery ortherapy. (a) analyzing untreated skin of a consumer and artificially transforming the untreated skin to a desired result to produce artificially transformed skin by applying a cover-up or by using image transformation; (b) treating the untreated skin with a product to produce treated skin; and (c) comparing the treated skin to the artificially transformed skin to yield a difference associated with a symbol,