mhurhangee/patent-ind-claim-en huggingface dataset:
A process of producing a soy protein product having a protein content of at least 60 wt% (N x 6.25) on a dry weight basis, which comprises: (a) extracting a soy protein source which is soy meal, soy flake, soy grits or soy flour with an aqueous calcium salt solution, optionally containing an antioxidant, at a pH of 5 to 11 to cause solubilization of soy protein from the soy protein source and to form a mixture of aqueous soy protein solution and residual soy protein source, (b) optionally diluting the mixture of aqueous soy protein solution and residual soy protein source, (c) adjusting the pH of the mixture of aqueous soy protein solution and residual soy protein source to a pH of 1.5 to 4.4, (d) separating the acidified aqueous soy protein solution from the residual soy protein source, (e) optionally concentrating the acidified aqueous soy protein solution while maintaining the ionic strength substantially constant using a selective membrane technique, (f) optionally diafiltering the optionally concentrated soy protein solution, and (g) optionally drying the optionally diafiltered and optionally concentrated soy protein solution. (a) extracting a soy protein source which is soy meal, soy flake, soy grits or soy flour with an aqueous calcium salt solution, optionally containing an antioxidant, at a pH of 5 to 11 to cause solubilization of soy protein from the soy protein source and to form a mixture of aqueous soy protein solution and residual soy protein source, (b) optionally diluting the mixture of aqueous soy protein solution and residual soy protein source, (c) adjusting the pH of the mixture of aqueous soy protein solution and residual soy protein source to a pH of 1.5 to 4.4, (d) separating the acidified aqueous soy protein solution from the residual soy protein source, (e) optionally concentrating the acidified aqueous soy protein solution while maintaining the ionic strength substantially constant using a selective membrane technique, (f) optionally diafiltering the optionally concentrated soy protein solution, and (g) optionally drying the optionally diafiltered and optionally concentrated soy protein solution.
A milking system for milking a dairy animal , comprising - a milking cup for obtaining the milk , with a teat space having a first milk outflow opening , - a measuring chamber for at least temporarily containing the obtained milk and provided with a milk inflow opening which is in flow communication with the first milk outflow opening, a second milk outflow opening , and a sensor device for measuring a property of the milk in the measuring chamber, wherein a flow path of the milk runs from the first milk outflow opening via the milk inflow opening through the measuring chamber to the second milk outflow opening, wherein the sensor device comprises an optical sensor device having a plurality of optical sensor elements and at least one light source configured to shine light via at least a part of the milk onto the sensor elements and to generate sensor signals therein, further comprising a control unit , characterised in that the measuring chamber is directly and rigidly connected to the milking cup, and is provided with a vacuum outlet which is connectable, and in particular connected, to a reduced-pressure pump, and wherein the control unit is configured to process the sensor signals into values of at least two different parameters of the milk in the measuring chamber, wherein the parameters comprise at least a milk level in the measuring chamber, and at least one out of a content of a milk component and a colour. - a milking cup for obtaining the milk , with a teat space having a first milk outflow opening , - a measuring chamber for at least temporarily containing the obtained milk and provided with a milk inflow opening which is in flow communication with the first milk outflow opening, a second milk outflow opening , and a sensor device for measuring a property of the milk in the measuring chamber,
A drive device for a building opening shading comprising an electric tubular motor acting together with a reel shaft , and further a stationary housing part, preferably of a lateral cover cap of a box receiving the reel shaft , with the tubular motor being connectable to an electric source and receivable on the housing part in a non-rotary fashion during operation, and with mutually facing adapters associated with the tubular motor and the housing part and connected or connectable therewith in a non-rotary fashion, further comprising a locking device and an electric coupling, with the adapters being insertable into each other in an axial direction and by means of the locking device are detachably lockable with each other in a direction of rotation and can be coupled with each other in an electrically conductive fashion by means of the electric coupling, with contact elements provided on the adapters which can be brought in mutual contact with each other in an axial direction and are electrically connected with the power source and/or the tubular motor to ensure an electric coupling, characterized in that provision is made for at least one driver designed as a rollable round body for mutually locking of the two adapters , such driver being received in an associated, radial reach-through recess of an axial receiving bushing of one of the adapters with radial mobility, and which has a diameter exceeding the radial wall thickness of the receiving bushing , and which can be engaged and disengaged with the other adapter provided with at least one radial engaging recess for a driver by means of a twistable locking ring concentrically arranged relative to the receiving bushing , with the locking ring in the region of its circumference contacting the receiving bushing comprising a receiving pocket for each driver with a depth rising in a direction of rotation of the locking ring up to at least the excessive size of the driver relative to the radial wall thickness of the receiving bushing and besides a recess-free circumferential area.
A solar cell module , comprising: a solar cell panel ; a plurality of frame members that are provided at the peripheral edge of the solar cell panel and that have a cross-sectional shape having a hollow portion ; a corner member provided in the hollow portion ; a holding section that is provided in the hollow portion and that holds the corner member ; and a plurality of rivet sections formed by pressing the frame member , characterized in that the hollow portion is defined by an inner wall on an inner periphery side and an outer wall on an outer periphery side in each of the plurality of frame members , the holding section includes a first rib and a second rib which project from an inner face of the inner wall of each of the plurality of frame members and which extend along a longitudinal direction of each of the plurality of frame members , and further includes a third rib and a fourth rib which project from an inner face of the outer wall of each of the plurality of frame members and which extend along the longitudinal direction, and the plurality of rivet sections include a first part formed on a portion of the inner wall at least partly superposed with the corner member and at least adjacent to the first rib , and a second part formed on a portion of the inner wall at least partly superposed with the corner member and at least adjacent to the second rib . a solar cell panel ; a plurality of frame members that are provided at the peripheral edge of the solar cell panel and that have a cross-sectional shape having a hollow portion ; a corner member provided in the hollow portion ; a holding section that is provided in the hollow portion and that holds the corner member ; and a plurality of rivet sections formed by pressing the frame member , characterized in that the hollow portion is defined by an inner wall on an inner periphery side and an outer wall on an outer periphery side in each of the plurality of frame members , the holding section includes a first rib and a second rib which project from an inner face of the inner wall of each of the plurality of frame members and which extend along a longitudinal direction of each of the plurality of frame members , and further includes a third rib and a fourth rib which project from an inner face of the outer wall of each of the plurality of frame members and which extend along the longitudinal direction, and the plurality of rivet sections include a first part formed on a portion of the inner wall at least partly superposed with the corner member and at least adjacent to the first rib , and a second part formed on a portion of the inner wall at least partly superposed with the corner member and at least adjacent to the second rib .
A prosthetic mitral valve system comprising: a valve assembly comprising an expandable valve frame and an occluder attached to the expandable valve frame; and an anchor assembly comprising an expandable anchor frame, the anchor assembly configured to selectively couple with the valve assembly, the expandable anchor frame comprising a systolic anterior motion, SAM, containment member that is configured to be at least partially disposed behind an anterior leaflet of a native mitral valve when the expandable anchor frame is engaged with the native mitral valve, wherein the anchor assembly is configured to be deployed to an arrangement interfacing within the native mitral valve; and wherein the SAM containment member is configured to be restrained in a pre-deployed configuration after deployment of the anchor assembly, wherein the SAM containment member is further configured to be reconfigured from the pre-deployed configuration to a deployed configuration prior to or after deployment of the valve assembly. a valve assembly comprising an expandable valve frame and an occluder attached to the expandable valve frame; and an anchor assembly comprising an expandable anchor frame, the anchor assembly configured to selectively couple with the valve assembly, the expandable anchor frame comprising a systolic anterior motion, SAM, containment member that is configured to be at least partially disposed behind an anterior leaflet of a native mitral valve when the expandable anchor frame is engaged with the native mitral valve, wherein the anchor assembly is configured to be deployed to an arrangement interfacing within the native mitral valve; and wherein the SAM containment member is configured to be restrained in a pre-deployed configuration after deployment of the anchor assembly, wherein the SAM containment member is further configured to be reconfigured from the pre-deployed configuration to a deployed configuration prior to or after deployment of the valve assembly.
A surgical system comprising: a tool ; a manipulator to support the tool and move the tool in response to user forces and torques applied to the tool by a user; one or more sensors (S) to measure forces and torques applied to the tool ; and a control system comprising: a guide handler to obtain a target state for the tool and generate one or more virtual constraints based on the target state and a current state of the tool ; a constraint solver to calculate a constraint force (F c ) adapted to attract the tool toward the target state or repel the tool away from the target state based on the one or more virtual constraints; and a virtual simulator to simulate dynamics of the tool in a virtual simulation based on input from the one or more sensors (S) and the constraint force (F c ), and to output a commanded pose (CP), the control system being configured to command the manipulator to move the tool based on the commanded pose (CP) and to thereby provide haptic feedback to the user that guides the user toward placing the tool at the target state or away from the target state. a tool ; a manipulator to support the tool and move the tool in response to user forces and torques applied to the tool by a user; one or more sensors (S) to measure forces and torques applied to the tool ; and a control system comprising: a guide handler to obtain a target state for the tool and generate one or more virtual constraints based on the target state and a current state of the tool ; a constraint solver to calculate a constraint force (F c ) adapted to attract the tool toward the target state or repel the tool away from the target state based on the one or more virtual constraints; and a virtual simulator to simulate dynamics of the tool in a virtual simulation based on input from the one or more sensors (S) and the constraint force (F c ), and to output a commanded pose (CP), the control system being configured to command the manipulator to move the tool based on the commanded pose (CP) and to thereby provide haptic feedback to the user that guides the user toward placing the tool at the target state or away from the target state. a guide handler to obtain a target state for the tool and generate one or more virtual constraints based on the target state and a current state of the tool ; a constraint solver to calculate a constraint force (F c ) adapted to attract the tool toward the target state or repel the tool away from the target state based on the one or more virtual constraints; and a virtual simulator to simulate dynamics of the tool in a virtual simulation based on input from the one or more sensors (S) and the constraint force (F c ), and to output a commanded pose (CP), the control system being configured to command the manipulator to move the tool based on the commanded pose (CP) and to thereby provide haptic feedback to the user that guides the user toward placing the tool at the target state or away from the target state.
A method for processing an enhanced physical downlink control channel EPDCCH, comprising: acquiring , from a network-side device, M physical resource block PRB sets used for EPDCCH transmission, N reference signal RS configurations used for EPDCCH downlink control information DCI rate matching and/or EPDCCH resource mapping, and correspondence between the M PRB sets and the N RS configurations, wherein N is a positive integer greater than 1, and M is a positive integer; and performing EPDCCH detection on the M PRB sets respectively according to each PRB set of the M PRB sets and an RS configuration corresponding to each PRB set; wherein each RS configuration of the N RS configurations comprises one or more of the following: a cell identifier, an RS configuration index, a CRS configuration, an NZP CSIRS configuration, a ZP CSI-RS configuration, an EPDCCH start time, a multimedia broadcast multicast service single frequency network MBSFN subframe configuration, and a carrier index. acquiring , from a network-side device, M physical resource block PRB sets used for EPDCCH transmission, N reference signal RS configurations used for EPDCCH downlink control information DCI rate matching and/or EPDCCH resource mapping, and correspondence between the M PRB sets and the N RS configurations, wherein N is a positive integer greater than 1, and M is a positive integer; and performing EPDCCH detection on the M PRB sets respectively according to each PRB set of the M PRB sets and an RS configuration corresponding to each PRB set; wherein each RS configuration of the N RS configurations comprises one or more of the following: a cell identifier, an RS configuration index, a CRS configuration, an NZP CSIRS configuration, a ZP CSI-RS configuration, an EPDCCH start time, a multimedia broadcast multicast service single frequency network MBSFN subframe configuration, and a carrier index.
A tobacco plant comprising a nic1 nic2 genotype and further comprising a topping inducible promoter operably linked to a transcribable DNA sequence encoding a non-coding RNA for suppression of an ornithine decarboxylase (ODC) gene, wherein said ODC gene encodes a polypeptide sequence having at least 90% identity to a sequence selected from the group consisting of SEQ ID NOs: 29, 30, 31, 32, 33, and 34; and wherein said tobacco plant comprises a nicotine level of less than 5% of the level of a control plant lacking said topping inducible promoter operably linked to a transcribable DNA sequence encoding a non-coding RNA for suppression of ODC gene when grown in similar conditions.
An injection device for intraocular drug delivery comprising: a housing sized and shaped for manipulation with one hand, the housing having a wall, a proximal end and a distal end; an atraumatic ocular contact surface at the housing distal end; a conduit at least partially within the housing, the conduit having a proximal end, a distal end, and a lumen extending therethrough, wherein the conduit comprises a needle; a dynamic resistance component comprising a slidable sleeve; and a measuring component comprising a central core member and a plurality of radially extending members, the plurality of radially extending members spaced apart from each other and having the same length and shape. a housing sized and shaped for manipulation with one hand, the housing having a wall, a proximal end and a distal end; an atraumatic ocular contact surface at the housing distal end; a conduit at least partially within the housing, the conduit having a proximal end, a distal end, and a lumen extending therethrough, wherein the conduit comprises a needle; a dynamic resistance component comprising a slidable sleeve; and a measuring component comprising a central core member and a plurality of radially extending members, the plurality of radially extending members spaced apart from each other and having the same length and shape.
A heating device (H) comprising at least one heating section for thermally conditioning preforms consisting of thermoplastic material to a temperature profile suitable for a blow moulding, wherein the heating device (H) has a transport unit for transporting the preforms along a transport path (T) of the heating device (H), the transport unit comprising a revolving conveyor chain (F) comprising a plurality of pivotably interconnected chain links , and wherein the transport unit has handling means for holding and handling an individual preform each, wherein the transport unit is configured and equipped such that the preforms are guided in a single row in at least a first section of the transport path (T) and are guided in two adjacent rows in at least a second section of the transport path (T), characterised in that each chain link has a cantilever , on which a first handling means and a second handling means are arranged, and wherein the cantilever has a main arm and a pivot arm , which is pivotably connected to the main arm , and wherein a change between a transport of the preforms in one row and a transport in two rows is made possible by pivoting the pivot arm .
A life cycle management method for a network service, wherein the method comprises: receiving , by a first device, a life cycle management request sent by a second device for a target network service, NS, wherein the life cycle management request comprises a mapping relationship between an identifier of an existing virtualized network function, VNF, instance and a characteristic parameter corresponding to the identifier, and the characteristic parameter is an identifier parameter that is in a target network service descriptor, NSD, and that marks each piece of VNF instance requirement information in multiple pieces of VNF instance requirement information required by the target NSD, the characteristic parameter is for identifying only one piece of VNF instance requirement information; and performing , by the first device, life cycle management on the target NS according to the existing VNF instance and the mapping relationship. receiving , by a first device, a life cycle management request sent by a second device for a target network service, NS, wherein the life cycle management request comprises a mapping relationship between an identifier of an existing virtualized network function, VNF, instance and a characteristic parameter corresponding to the identifier, and the characteristic parameter is an identifier parameter that is in a target network service descriptor, NSD, and that marks each piece of VNF instance requirement information in multiple pieces of VNF instance requirement information required by the target NSD, the characteristic parameter is for identifying only one piece of VNF instance requirement information; and performing , by the first device, life cycle management on the target NS according to the existing VNF instance and the mapping relationship.
Electric parking brake , in particular for a commercial vehicle, comprising: - at least two compressed air outlets , - an electrically controllable valve arrangement for controlling a compressed air distribution to the compressed air outlets , the said arrangement comprising a bistable valve , - a compressed air inlet which can be connected to a compressed air supply in order to supply the valve arrangement and the compressed air outlets with compressed air from a compressor and/or a compressed air reservoir, wherein - on its input side the bistable valve is supplied with compressed air from the compressed air supply regardless of the switching condition of the valve arrangement, which supply is at a pressure delivered by the compressor and/or the compressed air reservoir, characterised in that - the valve arrangement comprises a pneumatically controllable valve for inverting a reservoir pressure for a trailer control module, and wherein - the pneumatically controllable valve is controlled by the bistable valve . - at least two compressed air outlets , - an electrically controllable valve arrangement for controlling a compressed air distribution to the compressed air outlets , the said arrangement comprising a bistable valve , - a compressed air inlet which can be connected to a compressed air supply in order to supply the valve arrangement and the compressed air outlets with compressed air from a compressor and/or a compressed air reservoir, wherein - on its input side the bistable valve is supplied with compressed air from the compressed air supply regardless of the switching condition of the valve arrangement, which supply is at a pressure delivered by the compressor and/or the compressed air reservoir, characterised in that - the valve arrangement comprises a pneumatically controllable valve for inverting a reservoir pressure for a trailer control module, and wherein - the pneumatically controllable valve is controlled by the bistable valve .
A cable comprising at least one elongated conductive element sheathed by at least: - a first polymeric layer obtained from a first composition comprising a first polymer material and a first filler; and - a second polymeric layer obtained from a second composition comprising a second polymer material and a second filler; characterised in that : - the said first filler comprises at least a first oxide of such type as the oxide of an alkaline earth metal; and - the said second filler comprises at least a first silicate and a second silicate, the second silicate being different from the first silicate. - a first polymeric layer obtained from a first composition comprising a first polymer material and a first filler; and - a second polymeric layer obtained from a second composition comprising a second polymer material and a second filler; - the said first filler comprises at least a first oxide of such type as the oxide of an alkaline earth metal; and - the said second filler comprises at least a first silicate and a second silicate, the second silicate being different from the first silicate.