mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a cocoa biomass with a modified fat phase, said process comprising the steps of a. mixing cocoa biomass having a fat phase 1, wherein said fat phase is cocoa butter (CB), with a vegetable fat phase 2, said fat phase 1 and fat phase 2 forming a modified fat phase 3 in the mixture, b. separating the cocoa biomass from modified fat phase 3 to a desired fat level, wherein the desired fat level is 0.1-70 wt% of said cocoa biomass, wherein said cocoa biomass now have a residual modified fat phase 3 at a desired fat level replacing fat phase 1 and wherein excess of fat phase 3 is removed, and wherein the residual modified fat phase 3 is substantially a combination of fat phase 1 and fat phase 2, and c. optionally, repeating step a) and b) above, wherein the vegetable fat phase 2 is not CB. a. mixing cocoa biomass having a fat phase 1, wherein said fat phase is cocoa butter (CB), with a vegetable fat phase 2, said fat phase 1 and fat phase 2 forming a modified fat phase 3 in the mixture, b. separating the cocoa biomass from modified fat phase 3 to a desired fat level, wherein the desired fat level is 0.1-70 wt% of said cocoa biomass, wherein said cocoa biomass now have a residual modified fat phase 3 at a desired fat level replacing fat phase 1 and wherein excess of fat phase 3 is removed, and wherein the residual modified fat phase 3 is substantially a combination of fat phase 1 and fat phase 2, and c. optionally, repeating step a) and b) above,
An assembly for connecting a first electrical conductor to a second electrical conductor , with a press-on adapter which has at least one externally actuable press-on element , and with a housing-like contact preventer , wherein the contact preventer is adapted for connecting the second electrical conductor received in the contact preventer in an insertion direction (E) to the first electrical conductor , the insertion direction (E) being perpendicular to an effective direction (W) of the press-on element , wherein the contact preventer comprises a protective housing which comprises a receptacle for the second conductor , wherein the protective housing has a fork-shaped mating area with at least one contacting slot which runs parallel to the insertion direction (E) characterized in that the press-on adapter comprises a receptacle for the first and the second electrical conductor with the contact preventer , in that , for contacting, the at least one contacting slot exposes an interior of the contact preventer to the outside towards the receptacle for the first conductor , wherein the press-on element is configured to press the first conductor in the direction of the contacting slot , thereby generating a normal force between the first and the second electrical conductor , wherein the press-on element is formed by a screw and a nut and wherein the receptacle for the first and second electrical conductor with the contact preventer is formed between the nut and the screw . with a press-on adapter which has at least one externally actuable press-on element , and with a housing-like contact preventer , wherein the contact preventer is adapted for connecting the second electrical conductor received in the contact preventer in an insertion direction (E) to the first electrical conductor , the insertion direction (E) being perpendicular to an effective direction (W) of the press-on element , wherein the contact preventer comprises a protective housing which comprises a receptacle for the second conductor , wherein the protective housing has a fork-shaped mating area with at least one contacting slot which runs parallel to the insertion direction (E) characterized in that the press-on adapter comprises a receptacle for the first and the second electrical conductor with the contact preventer , in that , for contacting, the at least one contacting slot exposes an interior of the contact preventer to the outside towards the receptacle for the first conductor , wherein the press-on element is configured to press the first conductor in the direction of the contacting slot , thereby generating a normal force between the first and the second electrical conductor , wherein the press-on element is formed by a screw and a nut and wherein the receptacle for the first and second electrical conductor with the contact preventer is formed between the nut and the screw .
Leaf for a window or a door with a plastics-material profiled frame comprising a plurality of hollow chambers, with an insulation glazing received in the profiled frame and bonded thereto, which glazing comprises a first pane facing the profiled frame and at least a second pane spaced apart therefrom, wherein the first pane and the second pane are connected together indirectly or directly, and with a glass cover connected to the profiled frame , which cover at least partly covers the second pane on its side facing away from the profiled frame in the edge region, wherein the profiled frame of the leaf has a groove open towards the weather side of the leaf , in which groove a latching element of the glass cover is latched, characterised in that the glass cover comprises a reinforcing element , and the reinforcing element is connected to a reinforcing element of the profiled frame , the reinforcing element of the profiled frame being designed as a reinforcement profile introduced into one of the hollow chambers of the profiled frame , which profile extends at least partly beneath the insulation glazing.
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: perceiving a driving environment surrounding an autonomous driving vehicle (ADV) , including perceiving an initial set of obstacles within a first lane in which the ADV is driving; identifying a first set of one or more obstacles as a subset from the initial set of obstacles based on a first set of predetermined criteria; expanding a dimension of each obstacle in the first set of obstacles to a width of the first lane to prevent the ADV from nudging any obstacle in the first set of obstacles; and planning a trajectory for the ADV in view of the expanded obstacles in the first set to control the ADV to navigate through the first lane , without considering remaining obstacles in the initial set; characterised in that the method further comprises: in response to the ADV switching from the first lane to a second lane , identifying a second set of obstacles therein based on a second set of predetermined criteria; and expanding each of the obstacles in the second set of obstacles to a width of the second lane. perceiving a driving environment surrounding an autonomous driving vehicle (ADV) , including perceiving an initial set of obstacles within a first lane in which the ADV is driving; identifying a first set of one or more obstacles as a subset from the initial set of obstacles based on a first set of predetermined criteria; expanding a dimension of each obstacle in the first set of obstacles to a width of the first lane to prevent the ADV from nudging any obstacle in the first set of obstacles; and planning a trajectory for the ADV in view of the expanded obstacles in the first set to control the ADV to navigate through the first lane , without considering remaining obstacles in the initial set; characterised in that the method further comprises: in response to the ADV switching from the first lane to a second lane , identifying a second set of obstacles therein based on a second set of predetermined criteria; and expanding each of the obstacles in the second set of obstacles to a width of the second lane. in response to the ADV switching from the first lane to a second lane , identifying a second set of obstacles therein based on a second set of predetermined criteria; and expanding each of the obstacles in the second set of obstacles to a width of the second lane.
A modified CAR T cell comprising: (a) a nucleic acid capable of decreasing or eliminating expression of an endogenous FAS gene; and (b) a nucleic acid encoding a chimeric antigen receptor (CAR) comprising an antigen binding domain, a transmembrane domain and an intracellular domain of a costimulatory molecule; wherein the expression of the endogenous FAS gene is decreased or eliminated in the modified CAR T cell. (a) a nucleic acid capable of decreasing or eliminating expression of an endogenous FAS gene; and (b) a nucleic acid encoding a chimeric antigen receptor (CAR) comprising an antigen binding domain, a transmembrane domain and an intracellular domain of a costimulatory molecule;
A water current shield for providing an object with protection from a water current at a subsea work site, the water current shield comprising: a. a frame , comprising: i. a post ; ii. a set of upper louver attachment arms , a first member of the set of upper louver attachment arms connected to the post at a first predetermined offset angle and a second member of the set of upper louver attachment arms connected to the post at a second predetermined offset angle; iii. a set of lower louver attachment arms , a first member of the set of lower louver attachment arms connected to the post at the first predetermined offset angle and a second member of the set of lower louver attachment arms connected to the post at the second predetermined offset angle; and iv. a stationer connected to the post ; b. a predetermined set of louver assemblies operatively connected to the frame intermediate the upper louver attachment arms and the lower louver attachment arms , each louver assembly comprising a selectably movable louver ; and c. a louver mover operatively connected to each selectably movable louver and operative to allow the louver assemblies to be placed and secured selectively into an open, partially open, and/or closed position. a. a frame , comprising: i. a post ; ii. a set of upper louver attachment arms , a first member of the set of upper louver attachment arms connected to the post at a first predetermined offset angle and a second member of the set of upper louver attachment arms connected to the post at a second predetermined offset angle; iii. a set of lower louver attachment arms , a first member of the set of lower louver attachment arms connected to the post at the first predetermined offset angle and a second member of the set of lower louver attachment arms connected to the post at the second predetermined offset angle; and iv. a stationer connected to the post ; i. a post ; ii. a set of upper louver attachment arms , a first member of the set of upper louver attachment arms connected to the post at a first predetermined offset angle and a second member of the set of upper louver attachment arms connected to the post at a second predetermined offset angle; iii. a set of lower louver attachment arms , a first member of the set of lower louver attachment arms connected to the post at the first predetermined offset angle and a second member of the set of lower louver attachment arms connected to the post at the second predetermined offset angle; and iv. a stationer connected to the post ; b. a predetermined set of louver assemblies operatively connected to the frame intermediate the upper louver attachment arms and the lower louver attachment arms , each louver assembly comprising a selectably movable louver ; and c. a louver mover operatively connected to each selectably movable louver and operative to allow the louver assemblies to be placed and secured selectively into an open, partially open, and/or closed position.
An optical barrier device for detecting objects in a monitoring region, having a multiple arrangement of transmitters emitting light beams and receivers receiving light beams, wherein, when the monitoring region is free, light beams emitted by transmitters are guided unhindered to receivers associated therewith, wherein the light beams of at least one transmitter are at least partially interrupted by an object engagement in the monitoring region, and having a control and evaluation unit which is designed to generate an object detection signal as a function of received signals from the receivers , and wherein a correction unit is provided by means of which correction values are generated individually for the individual receivers and/or components assigned thereto in order to compensate for drift effects, the light beams emitted by the transmitters containing coding, and wherein DC voltage components in the received signals are compensated for by means of the correction values, characterised in that decoding variables are corrected by means of the correction values. the light beams emitted by the transmitters containing coding, and wherein DC voltage components in the received signals are compensated for by means of the correction values, characterised in that decoding variables are corrected by means of the correction values.
Method for prioritizing access by a container instance to a file in a file system resource, comprising - receiving (S1), in a runtime environment of the container instance, an access request (R1) for the container instance to access the file , wherein the access request (R1) contains an access identifier (L1) which indicates at least one property of the accessing container instance , - checking (S2), by way of an access control unit in the container runtime environment , the at least one property in the access identifier (L1) against an access guideline that comprises a prioritization level for accessing at least the one file on the basis of the properties of the access identifier (L1), and - assigning (S3) an access authorization with a prioritization level to the access request (R1) on the basis of the checking result, - forwarding (S4) the access request (R1) to the file on the basis of the assigned prioritization level. - receiving (S1), in a runtime environment of the container instance, an access request (R1) for the container instance to access the file , wherein the access request (R1) contains an access identifier (L1) which indicates at least one property of the accessing container instance , - checking (S2), by way of an access control unit in the container runtime environment , the at least one property in the access identifier (L1) against an access guideline that comprises a prioritization level for accessing at least the one file on the basis of the properties of the access identifier (L1), and - assigning (S3) an access authorization with a prioritization level to the access request (R1) on the basis of the checking result, - forwarding (S4) the access request (R1) to the file on the basis of the assigned prioritization level.
A steering column for a motor vehicle, comprising an actuating unit , in which a steering spindle is mounted so as to be able to rotate about a longitudinal axis (L) and which comprises a casing unit which comprises at least three casing tubes which are arranged so as to be axially telescopable relative to one another and one of which forms an outer casing tube in which at least one intermediate casing tube , in which an inner casing tube is accommodated, is accommodated, and rolling bodies being arranged, between the casing tubes , such that they are able to roll in the axial direction, wherein first rolling bodies are arranged between the outer casing tube and the intermediate casing tube , and second rolling bodies are arranged between the intermediate casing tube and the inner casing tube , characterized in that the first rolling bodies being arranged offset in the circumferential direction relative to the second rolling bodies .
A non-spill collar and valve assembly, comprising: a collar having an internal frustum shaped wall with an upper open end that extends downward and inward into a closed lower end , the collar comprising: a projection extending outward and away from the closed lower end ; a support surface arranged along an inner surface adjacent to the upper open end ; at least one aperture disposed in the internal frustum shaped wall to channel a fluid; and a fastener assembly disposed adjacent to a bottom of the collar provided to securely fasten to a container ; and an annular seal having a first surface constructed in a form of a frustum substantially similar to a shape of the internal frustum shaped wall of the collar , the annular seal having an interconnecting portion on a lower surface to be received and secured onto the projection . a collar having an internal frustum shaped wall with an upper open end that extends downward and inward into a closed lower end , the collar comprising: a projection extending outward and away from the closed lower end ; a support surface arranged along an inner surface adjacent to the upper open end ; at least one aperture disposed in the internal frustum shaped wall to channel a fluid; and a fastener assembly disposed adjacent to a bottom of the collar provided to securely fasten to a container ; and a projection extending outward and away from the closed lower end ; a support surface arranged along an inner surface adjacent to the upper open end ; at least one aperture disposed in the internal frustum shaped wall to channel a fluid; and a fastener assembly disposed adjacent to a bottom of the collar provided to securely fasten to a container ; and an annular seal having a first surface constructed in a form of a frustum substantially similar to a shape of the internal frustum shaped wall of the collar , the annular seal having an interconnecting portion on a lower surface to be received and secured onto the projection .
A wearable system, comprising: a power generation system for producing a positive pressure and a vacuum to a fluid; a device providing electric power for powering the power generation system; a pneumatic reservoir for storing the fluid and the vacuum generated by the power generating system; actuator and sensing elements (SPA) operatively connected via channels to the pneumatic reservoir for providing at least one of a positive pressure and the vacuum to a multimodal actuation layer and a sensing layer; an electro-pneumatic system in operative connection with the actuator and sensing elements, respectively, including a valve and a pressure sensor for each actuator and sensing element, the electro-pneumatic system configured to measure, monitor and control the fluid through the channels; a microcontroller for controlling the power generation system and the electro-pneumatic system; a bidirectional wearable interaction device including the actuator and sensing elements, the bidirectional wearable interaction device being flexible and stretchable. a power generation system for producing a positive pressure and a vacuum to a fluid; a device providing electric power for powering the power generation system; a pneumatic reservoir for storing the fluid and the vacuum generated by the power generating system; actuator and sensing elements (SPA) operatively connected via channels to the pneumatic reservoir for providing at least one of a positive pressure and the vacuum to a multimodal actuation layer and a sensing layer; an electro-pneumatic system in operative connection with the actuator and sensing elements, respectively, including a valve and a pressure sensor for each actuator and sensing element, the electro-pneumatic system configured to measure, monitor and control the fluid through the channels; a microcontroller for controlling the power generation system and the electro-pneumatic system; a bidirectional wearable interaction device including the actuator and sensing elements, the bidirectional wearable interaction device being flexible and stretchable.
A method of manufacturing a rotor system comprising a casing and a rotor, the method comprising: designing the casing with stall enhancement features; fabricating the rotor with a number of blades , each blade having a tip, the rotor configured to rotate in a flow stream ; constructing the casing to be configured to fit over the rotor so that tips of the blades are configured to pass proximate the casing when the rotor rotates about an axis ; forming, by additive manufacturing, the casing with a series of grooves in the casing, wherein the grooves extend into the casing radially outward relative to the axis and are oriented to extend longitudinally at an acute angle relative to the axis to provide stall enhancement; optimizing, by analysis, aerodynamic performance of the grooves to avoid stall; and assembling the rotor in the casing with the grooves extending over at least a portion of the blade tips so that the blade tips are configured to pass across the grooves when the rotor rotates, wherein the method comprises: forming a section of the casing that contains the grooves as a number of separate segments ; fitting the segments to the casing to encircle the rotor; and forming, integrally during the additive manufacturing, a manifold in the section, wherein the manifold includes the grooves and an annular channel connecting with each of the grooves. designing the casing with stall enhancement features; fabricating the rotor with a number of blades , each blade having a tip, the rotor configured to rotate in a flow stream ; constructing the casing to be configured to fit over the rotor so that tips of the blades are configured to pass proximate the casing when the rotor rotates about an axis ; forming, by additive manufacturing, the casing with a series of grooves in the casing, wherein the grooves extend into the casing radially outward relative to the axis and are oriented to extend longitudinally at an acute angle relative to the axis to provide stall enhancement; optimizing, by analysis, aerodynamic performance of the grooves to avoid stall; and assembling the rotor in the casing with the grooves extending over at least a portion of the blade tips so that the blade tips are configured to pass across the grooves when the rotor rotates, wherein the method comprises: forming a section of the casing that contains the grooves as a number of separate segments ; fitting the segments to the casing to encircle the rotor; and forming, integrally during the additive manufacturing, a manifold in the section, wherein the manifold includes the grooves and an annular channel connecting with each of the grooves. forming a section of the casing that contains the grooves as a number of separate segments ; fitting the segments to the casing to encircle the rotor; and forming, integrally during the additive manufacturing, a manifold in the section, wherein the manifold includes the grooves and an annular channel connecting with each of the grooves.