mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a storage system of a motor vehicle for a product , comprising the steps of: - outputting product information for the product of a service provider external to the motor vehicle on an output device of the storage system according to a decision criterion; (S8) - transmitting a product selected by a user of the storage system to the service provider by means of a transmission device of the storage system ; characterized by the step of: - adapting a shape of a surface of a storage device of the storage system for the selected product by means of an adjusting actuator system of the storage device according to the selected product (S8). - outputting product information for the product of a service provider external to the motor vehicle on an output device of the storage system according to a decision criterion; (S8) - transmitting a product selected by a user of the storage system to the service provider by means of a transmission device of the storage system ; - adapting a shape of a surface of a storage device of the storage system for the selected product by means of an adjusting actuator system of the storage device according to the selected product (S8).
A method for non-destructively determining a lifespan of a solid rocket motor propellant grain , wherein the solid rocket motor propellant grain is a solid mass with an exposed inner surface area defining a perforation in the interior of the solid rocket motor propellant grain, comprising: moving a gas into the perforation, thereby applying a force to a surface of the solid rocket motor propellant grain with a pressure of the gas, wherein a deformation is formed on the surface of the solid rocket motor propellant grain in response to the application of the force; wherein the gas is pressurized in response to moving a pre-determined number of moles of gas into the perforation, wherein the deformation is formed in response to the gas being pressurized; and measuring a pressure of the gas.
Service station for autonomously cleaning a vehicle which comprises first sensors and second sensors, having: a first service module designed to clean the interior of the vehicle ; a second service module designed to clean the exterior of the vehicle ; a first control module which is upstream of the service modules and has at least one third sensor which is designed to capture at least one variable characterizing the degree of soiling of the vehicle , and a second control module which is downstream of the service modules and has at least one fourth sensor which is designed to capture a variable characterizing the degree of soiling of the vehicle . a first service module designed to clean the interior of the vehicle ; a second service module designed to clean the exterior of the vehicle ; a first control module which is upstream of the service modules and has at least one third sensor which is designed to capture at least one variable characterizing the degree of soiling of the vehicle , and a second control module which is downstream of the service modules and has at least one fourth sensor which is designed to capture a variable characterizing the degree of soiling of the vehicle .
A method for preparing soluble branched glucose polymers, characterised in that it comprises the succession of following steps: 1) bursting and solubilisation of a starch milk having an amylose content comprised between 35 and 80% by weight, and a dry matter comprised between 5 and 25%, 2) continuous addition of a glycogen branching enzyme extracted from thermophilic microorganisms, having an activity comprised between 25,000 U/ml and 60,000 U/ml, at a dose comprised between 800 and 2,500 U/g dry starch, at a temperature comprised between 60°C and 80°C, for a period of 12 to 18 hours, 3) optionally, treatment with an α-amylase type starch liquefaction enzyme having an activity comprised between 100 and 150 KNU/ml at a temperature of 95°C, a pH comprised between 5 and 8, for 30 to 60 minutes, preferably for 45 minutes, 4) purification of the soluble branched glucose polymers thus obtained by: - at least one step of treatment with activated carbon and/or with granular black carbon, - at least one sterilising filtration step, and - optionally at least one heat treatment step, 5) recovery of the soluble purified branched glucose polymers thus obtained. 1) bursting and solubilisation of a starch milk having an amylose content comprised between 35 and 80% by weight, and a dry matter comprised between 5 and 25%, 2) continuous addition of a glycogen branching enzyme extracted from thermophilic microorganisms, having an activity comprised between 25,000 U/ml and 60,000 U/ml, at a dose comprised between 800 and 2,500 U/g dry starch, at a temperature comprised between 60°C and 80°C, for a period of 12 to 18 hours, 3) optionally, treatment with an α-amylase type starch liquefaction enzyme having an activity comprised between 100 and 150 KNU/ml at a temperature of 95°C, a pH comprised between 5 and 8, for 30 to 60 minutes, preferably for 45 minutes, 4) purification of the soluble branched glucose polymers thus obtained by: - at least one step of treatment with activated carbon and/or with granular black carbon, - at least one sterilising filtration step, and - optionally at least one heat treatment step, - at least one step of treatment with activated carbon and/or with granular black carbon, - at least one sterilising filtration step, and - optionally at least one heat treatment step, 5) recovery of the soluble purified branched glucose polymers thus obtained.
Measuring arrangement, comprising at least one measuring resistor which is formed by a central portion and two end portions , wherein the measuring resistor is of U-shaped or C-shaped design, wherein the end portions each have at least one cutout , characterized in that at least one connector element is connected to the first end portion and a second connector element is connected to the second end portion for the purposes of connection to a cable and/or a terminal lug, and in that an injection-moulded encapsulation is arranged between the two end portions and/or partially in the cutout .
A transport system of a plurality of identical containers , the system comprising a first and a second thermoformed foil , shaped to form a plurality of stations each having a first face with a raised portion having a first and a second centering conical portion configured so as to centre a base 10 of a container, and a support portion for the base of the container, and a second face opposite the first having a hollow portion defined by a fourth centering portion , by a fifth portion and by a sixth portion recessed with respect to the fifth portion, a plurality of containers being arranged in columns of equal height each positioned on a station of the first thermoformed foil with his first face facing the bases of the containers, the second thermoformed sheet being positioned above the columns of containers with the second face facing the tops of the containers, so as to stabilize the columns during handling, characterized in that the first thermoformed sheet is placed on a pallet , and in that each container comprises a can having a neck defining an opening , a valve element comprising a valve cup supporting a movable hollow stem against an elastic element between a first stable closing position and a second unstable position of fluid delivery through a cavity of the stem , the cavity of the stem when the stem is in the dispensing position being in communication with the interior of the can , wherein the fourth centering portion is configured to center the valve of a container, the fifth portion is for stably positioning at least a portion of the second sheet to a valve cup of a container , and the sixth portion is shaped to house and protect the stem of the aerosol valve of a container , the can being fixed to a support base of the container , the base comprising a support surface provided with a recess defined by a first centering surface configured to center the container on a valve cup of a further identical container on which the container can be piled, by a second support surface of stable support of the container on the valve cup and by a third surface recessed with respect to the second surface configured to house, protecting it, the stem an aerosol valve of the further container .
Monitoring arrangement comprising: a monitoring device comprising monitoring means for monitoring at least one gas parameter of a pollutant gas in an electrical system and a multiway valve device , and a testing device for checking at least one function of the monitoring means ; the multiway valve device comprising a first valve path formed as a gas connection for connecting the valve device to the system , a second valve path formed for gas transfer to the monitoring means , a third valve path formed for gas transfer to the testing device for checking at least one function of the monitoring means and an automatic switching device for selectively automatically connecting the second valve path to the first valve path or to the third valve path , the testing device being connectable or connected to the third valve path , which is designed as a second gas connection , the monitoring means having at least one density monitor , characterized in that the monitoring device has an overall housing which is formed from a plurality of parts and accommodates the monitoring means and the multiway valve device and in that the density monitor is accommodated in a density monitor housing part of the overall housing and can be connected or is connected to the gas space to be monitored via a tubular connection housing part of the overall housing , the multiway valve device being accommodated in this connection housing part . a monitoring device comprising monitoring means for monitoring at least one gas parameter of a pollutant gas in an electrical system and a multiway valve device , and a testing device for checking at least one function of the monitoring means ; the multiway valve device comprising a first valve path formed as a gas connection for connecting the valve device to the system , a second valve path formed for gas transfer to the monitoring means , a third valve path formed for gas transfer to the testing device for checking at least one function of the monitoring means and an automatic switching device for selectively automatically connecting the second valve path to the first valve path or to the third valve path , the testing device being connectable or connected to the third valve path , which is designed as a second gas connection , the monitoring means having at least one density monitor , characterized in that the monitoring device has an overall housing which is formed from a plurality of parts and accommodates the monitoring means and the multiway valve device and in that the density monitor is accommodated in a density monitor housing part of the overall housing and can be connected or is connected to the gas space to be monitored via a tubular connection housing part of the overall housing , the multiway valve device being accommodated in this connection housing part .
A method of a group management client for a service enabler architecture layer, SEAL, service for a wireless communication system , the method comprising: receiving, from a vertical application layer, VAL, client , a request for a list of groups in which a VAL user equipment, UE, of the VAL client is a member; transmitting, to a group management server for the SEAL service, a group list fetch request comprising an identity of the VAL UE; and receiving, from the group management server, a group list fetch response comprising at least one VAL group identifier, ID, indicating the list of the groups; and notifying, to the VAL client, the list of the groups. receiving, from a vertical application layer, VAL, client , a request for a list of groups in which a VAL user equipment, UE, of the VAL client is a member; transmitting, to a group management server for the SEAL service, a group list fetch request comprising an identity of the VAL UE; and receiving, from the group management server, a group list fetch response comprising at least one VAL group identifier, ID, indicating the list of the groups; and notifying, to the VAL client, the list of the groups.
A traveling wave optical modulator comprising: tandem optical and radio frequency (RF) paths, the optical path being configured to support an optical signal, and the RF path being a segmented RF path configured to support an RF signal, wherein the RF path has a first RF segment alongside a first length of the optical path, and a second RF segment alongside a second length of the optical path, wherein the first RF segment is configured to provide the RF signal to the second RF segment; and an RF amplifier positioned between the first and second segments of the RF path coupled to an input of the second RF segment, wherein the segmented radio frequency (RF) path is disposed, at least in part, alongside the optical path. tandem optical and radio frequency (RF) paths, the optical path being configured to support an optical signal, and the RF path being a segmented RF path configured to support an RF signal, wherein the RF path has a first RF segment alongside a first length of the optical path, and a second RF segment alongside a second length of the optical path, wherein the first RF segment is configured to provide the RF signal to the second RF segment; and an RF amplifier positioned between the first and second segments of the RF path coupled to an input of the second RF segment, wherein the segmented radio frequency (RF) path is disposed, at least in part, alongside the optical path.
Fire-retardant composition containing - colloidal silica as a binder - a combination of huntite (Mg 3 Ca(CO 3 ) 4 ) and hydromagnesite (Mg 5 (CO 3 ) 4 (OH) 2 ·4H 2 O) as a fire retardant, - mineral wool fibres, and - water, wherein, in relation to the total weight of the composition, colloidal silica is present from 1 to 50 percentage by weight, water is present from 10 to 50 percentage by weight, combination of huntite and hydromagnesite is present from 40 to 75 percentage by weight. - colloidal silica as a binder - a combination of huntite (Mg 3 Ca(CO 3 ) 4 ) and hydromagnesite (Mg 5 (CO 3 ) 4 (OH) 2 ·4H 2 O) as a fire retardant, - mineral wool fibres, and - water,
A floor surfacing machine comprising a frame that is carried by at least a first wheel and a second wheel , where the floor surfacing machine further comprises at least one operating head that is rotatably mounted to the frame , and where the floor surfacing machine comprises a control unit , where the floor surfacing machine comprises a wheel drive assembly for individually controlling the first wheel and the second wheel , characterized in that the control unit is arranged to add an oscillation control signal (O) to a wheel drive control signal (V) to individually vary the speed of the first wheel in relation to the second wheel for laterally displacing the operating head between a leftmost position and a rightmost position in an oscillating manner.
A window , such as a roof window , for a building , said window comprising a window frame and a sash mounted thereon, wherein the sash comprises a pane module comprising at least a first glass pane and a see-through area , the window further comprises a masking arranged in a masking area , wherein the masking area is arranged along an edge of the pane module and arranged to cover the pane module so that the masking reduces the visibility of at least a part of the sash and/or window frame , when viewed from an exterior side towards an interior side of the pane module, wherein the masking area is divided into one or more first regions and one or more second regions , and wherein the masking of each first region is switchable between an open configuration and a closed configuration, wherein in the closed configuration the masking covers a part of the pane module and wherein in the open configuration the masking exposes the part of the pane module , so that the first region in the open configuration is of increased optical transparency compared to the optical transparency through the first region in the closed configuration, and wherein in at least the open configuration, the window comprises one or more installation spaces arranged beneath the first region and outside the see-through area and wherein the installation space or spaces is or are arranged to accommodate an installation of at least one optical sensor surface of one or more optical sensor devices, so that the optical sensor surface is exposed to light provided through the first region . the window further comprises a masking arranged in a masking area , wherein the masking area is arranged along an edge of the pane module and arranged to cover the pane module so that the masking reduces the visibility of at least a part of the sash and/or window frame , when viewed from an exterior side towards an interior side of the pane module, wherein the masking area is divided into one or more first regions and one or more second regions , and wherein the masking of each first region is switchable between an open configuration and a closed configuration, wherein in the closed configuration the masking covers a part of the pane module and wherein in the open configuration the masking exposes the part of the pane module , so that the first region in the open configuration is of increased optical transparency compared to the optical transparency through the first region in the closed configuration, and wherein in at least the open configuration, the window comprises one or more installation spaces arranged beneath the first region and outside the see-through area and wherein the installation space or spaces is or are arranged to accommodate an installation of at least one optical sensor surface of one or more optical sensor devices, so that the optical sensor surface is exposed to light provided through the first region .
A cleaning system for cleaning a vehicle sensor , comprising: - an accumulator comprising: ∘ at least one cleaning fluid compartment provided with: ▪ at least one tensioning element , ▪ a cleaning fluid inlet for receiving cleaning fluid, and ▪ a cleaning fluid outlet for providing cleaning fluid in the form of a cleaning fluid jet, ∘ at least one gas compartment provided with: ▪ at least one tensioning element , ▪ a gas inlet for receiving gas, and ▪ a gas outlet for providing gas in the form of a gas jet, - a cleaning fluid spray device configured to spray cleaning fluid on the vehicle sensor , - a gas spray device configured to spray gas on the vehicle sensor . - an accumulator comprising: ∘ at least one cleaning fluid compartment provided with: ▪ at least one tensioning element , ▪ a cleaning fluid inlet for receiving cleaning fluid, and ▪ a cleaning fluid outlet for providing cleaning fluid in the form of a cleaning fluid jet, ∘ at least one gas compartment provided with: ▪ at least one tensioning element , ▪ a gas inlet for receiving gas, and ▪ a gas outlet for providing gas in the form of a gas jet, ∘ at least one cleaning fluid compartment provided with: ▪ at least one tensioning element , ▪ a cleaning fluid inlet for receiving cleaning fluid, and ▪ a cleaning fluid outlet for providing cleaning fluid in the form of a cleaning fluid jet, ▪ at least one tensioning element , ▪ a cleaning fluid inlet for receiving cleaning fluid, and ▪ a cleaning fluid outlet for providing cleaning fluid in the form of a cleaning fluid jet, ∘ at least one gas compartment provided with: ▪ at least one tensioning element , ▪ a gas inlet for receiving gas, and ▪ a gas outlet for providing gas in the form of a gas jet, ▪ at least one tensioning element , ▪ a gas inlet for receiving gas, and ▪ a gas outlet for providing gas in the form of a gas jet, - a cleaning fluid spray device configured to spray cleaning fluid on the vehicle sensor , - a gas spray device configured to spray gas on the vehicle sensor .
Method for selecting at least one gateway in a set of gateways for relaying data received from a server and intended for each endpoint in a group of endpoints , each endpoint in said group communicating with the server via at least one gateway in the set of gateways, the group of endpoints and the set of gateways forming a long-range wireless network affording low energy consumption, each gateway receiving data intended for at least one endpoint retransmitting said data to each endpoint for which said data are intended in a frame in accordance with a communication protocol adapted to said network, characterised in that the method comprises a selection procedure comprising: - obtaining , for each pair formed by an endpoint in said group and a gateway in the possible set of gateways, information, referred to as quality information, representing a quality of communication between said endpoint and said gateway; - seeking at least one subset of gateways in the set of gateways which, in combination, enable the server to communicate with each endpoint in said group, each subset comprising a minimum number of gateways, referred to as the minimum number, necessary for the server to be able to communicate with each endpoint in said group; for each subset found, obtaining , from the quality information, a value of a metric representing a risk of the data sent by the server and relayed by each gateway in said subset being lost because of collisions between frames relaying said data sent by the gateways in said subset; and selecting a subset according to the values of metrics obtained. - obtaining , for each pair formed by an endpoint in said group and a gateway in the possible set of gateways, information, referred to as quality information, representing a quality of communication between said endpoint and said gateway; - seeking at least one subset of gateways in the set of gateways which, in combination, enable the server to communicate with each endpoint in said group, each subset comprising a minimum number of gateways, referred to as the minimum number, necessary for the server to be able to communicate with each endpoint in said group; for each subset found, obtaining , from the quality information, a value of a metric representing a risk of the data sent by the server and relayed by each gateway in said subset being lost because of collisions between frames relaying said data sent by the gateways in said subset; and selecting a subset according to the values of metrics obtained.