mhurhangee/patent-ind-claim-en huggingface dataset:
A work vehicle (A) comprising: an accommodating container (WM) configured to accommodate turfgrasses mowed by a mower device (W); and a mowed turfgrass amount calculation unit configured to calculate a mowed turfgrass amount corresponding to an area of a work region (R), wherein the work vehicle (A) is configured to calculate the number of times of discharge of the accommodated turfgrasses based on the mowed turfgrass amount and information on an accommodation amount of the accommodating container (WM), and divide the work region (R) of a field into a plurality of regions by the calculated number of times of discharge, and autonomously travel to a discharge point (Pk) each time work in divided work regions (D1, D2, ...) is completed, and wherein when an end of a final straight travel route (Le) of any of the divided work regions (D1, D2, ...) and the discharge point (Pk) are on opposite sides with respect to the work region (R), the work vehicle (A) increases or decreases the number of straight travel routes such that the end of the final straight travel route (Le) and the discharge point (Pk) are on the same side with respect to the work region (R). an accommodating container (WM) configured to accommodate turfgrasses mowed by a mower device (W); and a mowed turfgrass amount calculation unit configured to calculate a mowed turfgrass amount corresponding to an area of a work region (R), wherein the work vehicle (A) is configured to calculate the number of times of discharge of the accommodated turfgrasses based on the mowed turfgrass amount and information on an accommodation amount of the accommodating container (WM), and divide the work region (R) of a field into a plurality of regions by the calculated number of times of discharge, and autonomously travel to a discharge point (Pk) each time work in divided work regions (D1, D2, ...) is completed, and wherein calculate the number of times of discharge of the accommodated turfgrasses based on the mowed turfgrass amount and information on an accommodation amount of the accommodating container (WM), and divide the work region (R) of a field into a plurality of regions by the calculated number of times of discharge, and autonomously travel to a discharge point (Pk) each time work in divided work regions (D1, D2, ...) is completed, and wherein when an end of a final straight travel route (Le) of any of the divided work regions (D1, D2, ...) and the discharge point (Pk) are on opposite sides with respect to the work region (R), the work vehicle (A) increases or decreases the number of straight travel routes such that the end of the final straight travel route (Le) and the discharge point (Pk) are on the same side with respect to the work region (R).
Injection moulding device comprising at least one material pipe , - wherein the at least one material pipe extends in a longitudinal direction (L), - wherein a flow channel for a fluid substance (M) is formed in the at least one material pipe , - wherein, at a front end of the flow channel , the at least one material pipe has a nozzle tip with at least one outlet opening for the fluid substance (M), - wherein, at a rear end of the flow channel , the at least one material pipe has at least one inlet opening for the fluid substance (M) and is attached to a mounting plate , - wherein the mounting plate is a manifold of an injection moulding tool, - wherein the at least one material pipe is heated by means of a heating device , - wherein the at least one material pipe is arranged in a housing and, inside the housing, is arranged in a section (A) orientated in longitudinal direction (L), on the outer circumference with no contact except to the heating device , - wherein the housing has a one-piece spacer and has a guide sleeve for each material pipe , - wherein each guide sleeve is secured to the spacer , and - wherein the spacer can be attached on the mounting plate and defines the separation between guide sleeve and mounting plate , characterised in - that the section (A) is arranged adjacent to the mounting plate and the section (A) extends respectively from the mounting plate to the front end of the material pipe . - wherein the at least one material pipe extends in a longitudinal direction (L), - wherein a flow channel for a fluid substance (M) is formed in the at least one material pipe , - wherein, at a front end of the flow channel , the at least one material pipe has a nozzle tip with at least one outlet opening for the fluid substance (M), - wherein, at a rear end of the flow channel , the at least one material pipe has at least one inlet opening for the fluid substance (M) and is attached to a mounting plate , - wherein the mounting plate is a manifold of an injection moulding tool, - wherein the at least one material pipe is heated by means of a heating device , - wherein the at least one material pipe is arranged in a housing and, inside the housing, is arranged in a section (A) orientated in longitudinal direction (L), on the outer circumference with no contact except to the heating device , - wherein the housing has a one-piece spacer and has a guide sleeve for each material pipe , - wherein each guide sleeve is secured to the spacer , and - wherein the spacer can be attached on the mounting plate and defines the separation between guide sleeve and mounting plate , - that the section (A) is arranged adjacent to the mounting plate and the section (A) extends respectively from the mounting plate to the front end of the material pipe .
A method of isolating an undifferentiated human embryonic stem cell from a sample containing such cells, the method comprising contacting the sample with an antibody that binds to PODXL, allowing the antibody to bind to PODXL on the surface of a cell and separating the antibody-cell complex from the remainder of the sample, thereby isolating the cell or cells within the sample that express PODXL on their surface, wherein the antibody has the amino acid sequences: i) SASSSVNYMY (SEQ ID NO: 2) ii) DTSNLAS (SEQ ID NO: 3) iii) QQWSSYPYT (SEQ ID NO: 4) iv) NYWMN (SEQ ID NO: 5) v) EIRLKSNNYATHYAESVKG (SEQ ID NO: 6); and vi) ERA (SEQ ID NO: 7). i) SASSSVNYMY (SEQ ID NO: 2) ii) DTSNLAS (SEQ ID NO: 3) iii) QQWSSYPYT (SEQ ID NO: 4) iv) NYWMN (SEQ ID NO: 5) v) EIRLKSNNYATHYAESVKG (SEQ ID NO: 6); and vi) ERA (SEQ ID NO: 7).
A lighting apparatus comprising a housing for housing a light source and directing a beam of light from a light source , the lighting apparatus comprising a lighting mount for securing the lighting apparatus to a support or substrate and a coupling mechanism for coupling the housing to the lighting mount , wherein the housing comprises: a light beam channel defined by an internal surface of the housing for the passage of light from the light source through the housing to a mouth ; a housing body, which comprises a heat sink zone comprising a heat sink, which comprises a plurality of substantially parallel fins; and an annular insert defining at least a portion of the light beam channel , which annular insert is removably mountable within the housing body, wherein the annular insert has a cooperating means at an end thereof distal to the mouth for cooperating with a tool for inserting or removing the annular insert , wherein the housing further comprises an optical mount for an optical element , such as a lens, the optical mount comprising a seat for an optical element and a corresponding recess for removably receiving an optical element in the optical mount of the housing and wherein the annular insert serves to retain the optical element in position in the optical mount, whereby the optical element may be removed from the optical mount via a mouth of the housing by first removing the annular insert from the housing body. a light beam channel defined by an internal surface of the housing for the passage of light from the light source through the housing to a mouth ; a housing body, which comprises a heat sink zone comprising a heat sink, which comprises a plurality of substantially parallel fins; and an annular insert defining at least a portion of the light beam channel , which annular insert is removably mountable within the housing body, wherein the annular insert has a cooperating means at an end thereof distal to the mouth for cooperating with a tool for inserting or removing the annular insert ,
A tool for use in dental implant treatments, comprising: - a handle ; - a shaft connected to the handle , wherein the shaft comprises a mounting section on the distal end; - the mounting section comprising a cavity and at least one side opening , - wherein the cavity is present at the distal end of the shaft and extends from a most distal end surface into, and through, the shaft such that the shaft is hollow for at least a portion of the way through the shaft , - wherein the at least one side opening is formed in an outer surface of the distal end of the shaft and extends along the shaft ; - wherein the handle , the shaft and the mounting section are aligned along a longitudinal direction of the tool ; - a retention element held inside the mounting section of the shaft for holding an implant driver ; - wherein the retention element has two end portions and a middle portion narrower than the end portions , wherein the middle portion and at least one of the end portions are hollow such that the implant driver may be received within the retention element ; and - wherein the middle portion of the retention element is flexible and radially expandable such that the insertion of the implant driver pushes the narrower middle portion of the retention element outwards, and the implant driver is held inside the retention element via friction. - a handle ; - a shaft connected to the handle , wherein the shaft comprises a mounting section on the distal end; - the mounting section comprising a cavity and at least one side opening , - wherein the cavity is present at the distal end of the shaft and extends from a most distal end surface into, and through, the shaft such that the shaft is hollow for at least a portion of the way through the shaft , - wherein the at least one side opening is formed in an outer surface of the distal end of the shaft and extends along the shaft ; - wherein the handle , the shaft and the mounting section are aligned along a longitudinal direction of the tool ; - a retention element held inside the mounting section of the shaft for holding an implant driver ; - wherein the retention element has two end portions and a middle portion narrower than the end portions , wherein the middle portion and at least one of the end portions are hollow such that the implant driver may be received within the retention element ; and - wherein the middle portion of the retention element is flexible and radially expandable such that the insertion of the implant driver pushes the narrower middle portion of the retention element outwards, and the implant driver is held inside the retention element via friction.
A continuous-flow electromagnetic-induction fluid heater (1, 1', 1") for a beverage vending machine; the continuous-flow electromagnetic-induction fluid heater (1, 1', 1") comprises: - at least one tubular body having a longitudinal axis (A), internally defining at least one channel for a fluid, and including at least one inlet opening through which the fluid to be heated is fed, in use, to said channel , and one outlet opening through which the heated fluid flows out, in use, from said channel ; - a heating element (13, 13', 13") arranged, at least partially, inside said channel so as to be lapped, in use, by the fluid; and - an electric winding wound directly in contact around an external surface of said tubular body and which can be electrically powered to generate an electromagnetic induction field and heat, in this manner, the heating element (13, 13', 13") due to the effect of said electromagnetic induction field; said inlet and outlet openings are arranged at respective opposite axial ends of said tubular body in eccentric positions with respect to said longitudinal axis (A). the continuous-flow electromagnetic-induction fluid heater (1, 1', 1") comprises: - at least one tubular body having a longitudinal axis (A), internally defining at least one channel for a fluid, and including at least one inlet opening through which the fluid to be heated is fed, in use, to said channel , and one outlet opening through which the heated fluid flows out, in use, from said channel ; - a heating element (13, 13', 13") arranged, at least partially, inside said channel so as to be lapped, in use, by the fluid; and - an electric winding wound directly in contact around an external surface of said tubular body and which can be electrically powered to generate an electromagnetic induction field and heat, in this manner, the heating element (13, 13', 13") due to the effect of said electromagnetic induction field; - at least one tubular body having a longitudinal axis (A), internally defining at least one channel for a fluid, and including at least one inlet opening through which the fluid to be heated is fed, in use, to said channel , and one outlet opening through which the heated fluid flows out, in use, from said channel ; - a heating element (13, 13', 13") arranged, at least partially, inside said channel so as to be lapped, in use, by the fluid; and - an electric winding wound directly in contact around an external surface of said tubular body and which can be electrically powered to generate an electromagnetic induction field and heat, in this manner, the heating element (13, 13', 13") due to the effect of said electromagnetic induction field; said inlet and outlet openings are arranged at respective opposite axial ends of said tubular body in eccentric positions with respect to said longitudinal axis (A).
A modular camera unit adapted to be positioned within an endoscope tip comprising: an optical element for receiving reflected light, said optical element being defined by a central axis ; a holder for housing said optical element ; a sensor for detecting said reflected light, wherein said sensor is attached to a surface of said holder and in optical communication with said optical element ; a printed circuit board having a planar surface; and a connector connecting said sensor with said printed circuit board , wherein the connector places said sensor in data communication with said printed circuit and wherein the planar surface of said printed circuit board is positioned in parallel to said axis defined by the optical element ; wherein the connector is a flat, planar structure; characterised in that the connector comprises a rectangular first part having a first width and a first length separating a first end and a second end and a rectangular second part having a second length and a second width defining a first side and a second side , wherein the first width is less than the second width and the first length is longer than the second length, wherein the first end is connected to the sensor and the second end is connected to the second part of the connector , wherein the first side is attached to the printed circuit board , and wherein the rectangular second part is substantially perpendicular to the printed circuit board . an optical element for receiving reflected light, said optical element being defined by a central axis ; a holder for housing said optical element ; a sensor for detecting said reflected light, wherein said sensor is attached to a surface of said holder and in optical communication with said optical element ; a printed circuit board having a planar surface; and a connector connecting said sensor with said printed circuit board , wherein the connector places said sensor in data communication with said printed circuit and wherein the planar surface of said printed circuit board is positioned in parallel to said axis defined by the optical element ;
A composition comprising an engineered Type III-A CRISPR-Cas (StCsm) complex of Streptococcus thermophilus consisting of at least crRNA, Csm4, and Csm3, wherein 1 to 10 Csm3 subunits are present, where the crRNA comprises a 5' handle and a spacer, and optionally a 3' handle, wherein the spacer is complementary to a region of a target RNA, and wherein the crRNA is programmed to guide the StCsm complex to a selected site in a target RNA molecule, and wherein the StCsm complex is capable of shredding the target RNA molecule under suitable conditions.
A method for validation of a finality proof in a distributed ledger system network , the method comprising: collecting, by a support node , a required number of confirmations from the distributed ledger system network indicating that a requested transaction is finalized; generating, by the support node , the finality proof based on the collected confirmations; transmitting, by the support node , the finality proof to a trusted agent for verification, wherein the trusted agent is an entity that is trusted by a light client with restricted processing resources that does not participate in the distributed ledger consensus protocol process; and verifying, by the trusted agent, the finality proof, wherein the verifying step comprises: executing a trusted application; performing the finality proof validation inside the trusted application; signing the finality proof validation inside the trusted application; and transmitting the signed finality proof validation to the light client . collecting, by a support node , a required number of confirmations from the distributed ledger system network indicating that a requested transaction is finalized; generating, by the support node , the finality proof based on the collected confirmations; transmitting, by the support node , the finality proof to a trusted agent for verification, wherein the trusted agent is an entity that is trusted by a light client with restricted processing resources that does not participate in the distributed ledger consensus protocol process; and verifying, by the trusted agent, the finality proof, wherein the verifying step comprises: executing a trusted application; performing the finality proof validation inside the trusted application; signing the finality proof validation inside the trusted application; and transmitting the signed finality proof validation to the light client . executing a trusted application; performing the finality proof validation inside the trusted application; signing the finality proof validation inside the trusted application; and transmitting the signed finality proof validation to the light client .
An imaging apparatus, comprising: an image capturing element ; an image capturing element sheet metal for holding the image capturing element; an image capturing element holder for holding the image capturing element sheet metal; a base member for tiltably supporting the image capturing element holder arranged on an opposite side of the image capturing element holder from the image capturing element sheet metal ; a driving motor for tilting the image capturing element holder to incline the image capturing element relative to a surface orthogonal to an optical axis of an imaging lens; and a first sealing member for sealing a gap between the base member and the image capturing element holder, the first sealing member deforming by the tilting of the image capturing element holder; and a second sealing member for sealing a gap between the image capturing element sheet metal and the image capturing element holder;. an image capturing element ; an image capturing element sheet metal for holding the image capturing element; an image capturing element holder for holding the image capturing element sheet metal; a base member for tiltably supporting the image capturing element holder arranged on an opposite side of the image capturing element holder from the image capturing element sheet metal ; a driving motor for tilting the image capturing element holder to incline the image capturing element relative to a surface orthogonal to an optical axis of an imaging lens; and a first sealing member for sealing a gap between the base member and the image capturing element holder, the first sealing member deforming by the tilting of the image capturing element holder; and a second sealing member for sealing a gap between the image capturing element sheet metal and the image capturing element holder;.
A dust box assembly, comprising - a dust box having a holding cavity , - a dust suction port , and - at least two air outlets , wherein - the dust suction port is connected to the holding cavity ; - the at least two air outlets are respectively connected to the holding cavity and formed in two opposite sides of the dust box ; - at least two fans are provided corresponding to the at least two air outlets ; and - the fans are configured to form an air stream passing through the dust suction port , the holding cavity , and the air outlets in turn. - a dust box having a holding cavity , - a dust suction port , and - at least two air outlets , - the dust suction port is connected to the holding cavity ; - the at least two air outlets are respectively connected to the holding cavity and formed in two opposite sides of the dust box ; - at least two fans are provided corresponding to the at least two air outlets ; and - the fans are configured to form an air stream passing through the dust suction port , the holding cavity , and the air outlets in turn.
A method for enrolling nodes into an ad hoc network comprising a master node and a database and being associated with a multi-roomed structure , each node comprising a communication hub configured to communicate with the ad hoc network using room-limited communications and communication media not limited by barriers, the method characterized by comprising: transmitting by a first node in the ad hoc network a first room-limited communication by changing a modulated frequency of the first room-limited communication from a first modulated frequency to a second modulated frequency; determining at each of the other nodes in the ad hoc network whether the first room-limited communication was received using a receiver tuned to the second modulated frequency; segmenting the nodes in the ad hoc network based on whether the first room-limited communication was received; and storing the segmentation of the nodes in the database from the master node by the communication media not limited by barriers, wherein the segmentation associates each node in the ad hoc network with a room of the multi-roomed structure . transmitting by a first node in the ad hoc network a first room-limited communication by changing a modulated frequency of the first room-limited communication from a first modulated frequency to a second modulated frequency; determining at each of the other nodes in the ad hoc network whether the first room-limited communication was received using a receiver tuned to the second modulated frequency; segmenting the nodes in the ad hoc network based on whether the first room-limited communication was received; and storing the segmentation of the nodes in the database from the master node by the communication media not limited by barriers, wherein the segmentation associates each node in the ad hoc network with a room of the multi-roomed structure .