mhurhangee/patent-ind-claim-en huggingface dataset:
A security device for a security document, the device comprising a substrate having a face , the face including a plurality of first walls , each first wall being orientated in a first direction and a plurality of second walls , each second wall being orientated in a second, different direction, at an angle to the first direction, wherein there is a first layer of material on each of the plurality of first walls or each of the plurality of second walls or each of both the plurality of first walls and the plurality of second walls , characterised in that the device is substantially invisible in visible light.
An assembly for strengthening a building column , the assembly comprising a plurality of rigid elongate parts which in use have their longitudinal directions parallel to the building column, the elongate parts including inter engaging engagement formations which permit the elongate members to connect together to surround the column, wherein the engagement formations are such that once inter engaged the elongate parts cannot be separated in either a directly longitudinal or a directly transverse direction and are in the form of projections and recesses , characterized in that the projections and recesses are inclined such that in use of the assembly, upper and lower edges of the projection: and recesses are inclined downwardly inwards towards the column.
Working machine, in particular an industrial truck , having at least two compressed-air-operated service brakes and at least two spring-mechanism-operated parking brakes , characterised in that the service and parking brakes are at least fitted to wheels of a front axle of the working machine, and the service and parking brakes can be actuated in response to an emergency brake signal (E) of a control unit of the working machine, wherein the at least two parking brakes can be switched into a pressure-free state by means of at least two vent valves which are fluidically connected in series.
An inner shell of a central console of a motor vehicle, characterized in that it is formed by the assembly of two half-shells , respectively a first half-shell and a second half-shell , made of a plastic material, said half-shells being hinged together so as to be able to move relative to one another from a partially assembled configuration of the inner shell , in which they are retained only at respectively two front and rear upper side edges of said inner shell , to a fully assembled configuration of the inner shell , in which they are fastened together by clipping.
A module for use in a combinatorial drug device , the module formed to accommodate a drug vial sealed by a septum , the module comprising: a vial spike formed to pierce the septum of the drug vial accommodated by the module , wherein the vial spike includes an inlet path and a separate outlet path ; a first sealing port ; a first fluid line connecting the inlet path with the first sealing port ; a fourth sealing port ; and, a third fluid line connecting the outlet path with the fourth sealing port ; characterized by , a first branch line extending from, and in communication with, the first fluid line , the first branch line including an exposed tube portion ; a second sealing port ; a third sealing port ; a second fluid line connecting the second sealing port with the third sealing port , wherein the first branch line extends to, and is in communication with, the second fluid line ; and, a male pin formed to pressingly engage against the exposed tube portion of a similarly-formed module connected directly to the module . a vial spike formed to pierce the septum of the drug vial accommodated by the module , wherein the vial spike includes an inlet path and a separate outlet path ; a first sealing port ; a first fluid line connecting the inlet path with the first sealing port ; a fourth sealing port ; and, a third fluid line connecting the outlet path with the fourth sealing port ; characterized by , a first branch line extending from, and in communication with, the first fluid line , the first branch line including an exposed tube portion ; a second sealing port ; a third sealing port ; a second fluid line connecting the second sealing port with the third sealing port , wherein the first branch line extends to, and is in communication with, the second fluid line ; and, a male pin formed to pressingly engage against the exposed tube portion of a similarly-formed module connected directly to the module .
A method for transmitting a packet data unit, PDU , in a transmitter of a mobile communication system, the method comprising: generating the PDU including a header and a plurality of data fields ; and transmitting the PDU, wherein the header includes a length indicator, LI, field and an extension bit field , wherein the LI field indicates a length of a corresponding data field in the PDU, the LI field is present for every data field except for a last data field in the PDU, wherein the extension bit field is associated with the LI field and placed prior to the associated LI field, characterized in that the extension bit field indicates whether a data field follows the associated LI field following the extension bit field or a set of another extension bit field and another LI field follows the associated LI field following the extension bit field. generating the PDU including a header and a plurality of data fields ; and transmitting the PDU, wherein the header includes a length indicator, LI, field and an extension bit field , wherein the LI field indicates a length of a corresponding data field in the PDU, the LI field is present for every data field except for a last data field in the PDU, wherein the extension bit field is associated with the LI field and placed prior to the associated LI field, characterized in that the extension bit field indicates whether a data field follows the associated LI field following the extension bit field or a set of another extension bit field and another LI field follows the associated LI field following the extension bit field.
A hydration medium for hydrating a hydrophilic material of a urinary catheter, the hydration medium comprising: a hydration foam comprising a hydration liquid comprising a liquid for hydrating the hydrophilic material of the urinary catheter and the hydration foam comprises a mass of gas bubbles formed on or in the hydration liquid; and wherein the hydration foam comprises: the hydration liquid comprising a solution wherein the liquid for hydrating the hydrophilic material is water and is between 80 wt% and 99 wt% of the solution; a surface tension reducing agent in an amount between 0.05 wt% to 5 wt% of the hydration foam, wherein the surface tension reducing agent comprises sodium dodecyl sulphate or sodium methyl cocoyl taurate; a viscosity increasing agent comprising a polyol in an amount between 0. 5 wt% to 10 wt% of the hydration foam; and a foam stabilizer in an amount between 0.01 wt% to 2 wt% of the hydration liquid, wherein the foam stabilizer comprises xanthan gum. a hydration foam comprising a hydration liquid comprising a liquid for hydrating the hydrophilic material of the urinary catheter and the hydration foam comprises a mass of gas bubbles formed on or in the hydration liquid; and wherein the hydration foam comprises: the hydration liquid comprising a solution wherein the liquid for hydrating the hydrophilic material is water and is between 80 wt% and 99 wt% of the solution; a surface tension reducing agent in an amount between 0.05 wt% to 5 wt% of the hydration foam, wherein the surface tension reducing agent comprises sodium dodecyl sulphate or sodium methyl cocoyl taurate; a viscosity increasing agent comprising a polyol in an amount between 0. 5 wt% to 10 wt% of the hydration foam; and a foam stabilizer in an amount between 0.01 wt% to 2 wt% of the hydration liquid, wherein the foam stabilizer comprises xanthan gum. the hydration liquid comprising a solution wherein the liquid for hydrating the hydrophilic material is water and is between 80 wt% and 99 wt% of the solution; a surface tension reducing agent in an amount between 0.05 wt% to 5 wt% of the hydration foam, wherein the surface tension reducing agent comprises sodium dodecyl sulphate or sodium methyl cocoyl taurate; a viscosity increasing agent comprising a polyol in an amount between 0. 5 wt% to 10 wt% of the hydration foam; and a foam stabilizer in an amount between 0.01 wt% to 2 wt% of the hydration liquid, wherein the foam stabilizer comprises xanthan gum.
A sampling device , comprising: a sampling bag comprising two flexible walls and an inner volume; two substantially rigid panels ; means for adhering the walls of the sampling bag to the panels wherein each flexible wall of the sampling bag has an outer surface area and each of the substantially rigid panels have a surface area larger than the outer surface area of the flexible wall such that the two substantially rigid panels can be biased together to reduce the inner volume to a volume of less than 5% of the fully inflated volume of the sampling bag; wherein the sampling bag further comprises an inlet port defined by one of the two flexible walls providing communication between an ambient fluid to be sampled and the internal sampling volume; and wherein the two substantially rigid panels comprise a top substantially rigid panel connected to one of the flexible walls on a first side of the sampling bag, and a bottom substantially rigid panel connected to the other of the flexible walls on a side opposite of the first side of the sampling bag, the panels comprising flaps , the flaps being configured to be folded to form a box around the sampling bag. a sampling bag comprising two flexible walls and an inner volume; two substantially rigid panels ; means for adhering the walls of the sampling bag to the panels wherein each flexible wall of the sampling bag has an outer surface area and each of the substantially rigid panels have a surface area larger than the outer surface area of the flexible wall such that the two substantially rigid panels can be biased together to reduce the inner volume to a volume of less than 5% of the fully inflated volume of the sampling bag; wherein the sampling bag further comprises an inlet port defined by one of the two flexible walls providing communication between an ambient fluid to be sampled and the internal sampling volume; and wherein the two substantially rigid panels comprise a top substantially rigid panel connected to one of the flexible walls on a first side of the sampling bag, and a bottom substantially rigid panel connected to the other of the flexible walls on a side opposite of the first side of the sampling bag, the panels comprising flaps , the flaps being configured to be folded to form a box around the sampling bag.
A commercial vehicle, preferably a truck, comprising: a cab body shell , which comprises a longitudinal outer side ; an air intake duct attached to the cab body shell and comprising an inlet located on the longitudinal outer side ; and an outer cover covering the inlet and fixedly attached to the cab body shell ; characterized in that the outer cover is decoupled from the inlet and the air intake duct . a cab body shell , which comprises a longitudinal outer side ; an air intake duct attached to the cab body shell and comprising an inlet located on the longitudinal outer side ; and an outer cover covering the inlet and fixedly attached to the cab body shell ; characterized in that the outer cover is decoupled from the inlet and the air intake duct .
An assembly for rotational equipment, comprising: a stationary structure ; a rotating structure rotatable about an axial centerline ; and a non-contact seal assembly configured to substantially seal an annular gap between the stationary structure and the rotating structure , the non-contact seal assembly comprising a seal shoe configured to sealingly engage the rotating structure axially along the axial centerline , wherein the non-contact seal assembly further comprises a seal carrier and a spring structure , wherein the seal carrier is mounted to the stationary structure , and wherein the spring structure flexibly connects the seal shoe to the seal carrier , wherein the spring structure comprises a plurality of ligaments arranged in an annular array about the axial centerline , wherein each of the plurality of ligaments extends radially out from the seal shoe to the seal carrier , characterised in that a first of the plurality of ligaments is axially tapered. a stationary structure ; a rotating structure rotatable about an axial centerline ; and a non-contact seal assembly configured to substantially seal an annular gap between the stationary structure and the rotating structure , the non-contact seal assembly comprising a seal shoe configured to sealingly engage the rotating structure axially along the axial centerline , wherein the non-contact seal assembly further comprises a seal carrier and a spring structure , wherein the seal carrier is mounted to the stationary structure , and wherein the spring structure flexibly connects the seal shoe to the seal carrier , wherein the spring structure comprises a plurality of ligaments arranged in an annular array about the axial centerline , wherein each of the plurality of ligaments extends radially out from the seal shoe to the seal carrier , characterised in that a first of the plurality of ligaments is axially tapered.
A work vehicle comprising: a vehicular body that travels in excavation; a work implement including a boom pivotable with respect to the vehicular body, and a bucket pivotable with respect to the boom; and a controller configured to calculate a direction of a cutting edge of the bucket, determine a direction of movement of the cutting edge by an excavation operation such that an excavation angle between the calculated direction of the cutting edge of the bucket and the direction of movement of the cutting edge by the excavation operation keeps a predetermined angle (Q), and cause the work vehicle to perform the excavation operation in the direction of movement. a vehicular body that travels in excavation; a work implement including a boom pivotable with respect to the vehicular body, and a bucket pivotable with respect to the boom; and a controller configured to calculate a direction of a cutting edge of the bucket, determine a direction of movement of the cutting edge by an excavation operation such that an excavation angle between the calculated direction of the cutting edge of the bucket and the direction of movement of the cutting edge by the excavation operation keeps a predetermined angle (Q), and cause the work vehicle to perform the excavation operation in the direction of movement.
An augmented reality system for an amusement ride, comprising: a facial recognition sensor configured to detect a guest's face; a skeletal recognition sensor configured to detect a guest's body; a presence sensor configured to detect a guest's presence; and a controller comprising a processor and a memory , wherein the controller is configured to: generate an augmented reality animation based on a first signal indicative of the guest's presence received from the presence sensor ; provide the augmented reality animation to a display assembly for viewing by the guest; in response to receiving a second signal indicative of the guest's body from the skeletal recognition sensor , update the augmented reality animation based on the guest's body; and in response to receiving a third signal indicative of the guest's face from the facial recognition sensor, update the augmented reality animation based on the guest's face. a skeletal recognition sensor configured to detect a guest's body; a presence sensor configured to detect a guest's presence; and a controller comprising a processor and a memory , wherein the controller is configured to: generate an augmented reality animation based on a first signal indicative of the guest's presence received from the presence sensor ; provide the augmented reality animation to a display assembly for viewing by the guest; in response to receiving a second signal indicative of the guest's body from the skeletal recognition sensor , update the augmented reality animation based on the guest's body; and in response to receiving a third signal indicative of the guest's face from the facial recognition sensor, update the augmented reality animation based on the guest's face. generate an augmented reality animation based on a first signal indicative of the guest's presence received from the presence sensor ; provide the augmented reality animation to a display assembly for viewing by the guest; in response to receiving a second signal indicative of the guest's body from the skeletal recognition sensor , update the augmented reality animation based on the guest's body; and in response to receiving a third signal indicative of the guest's face from the facial recognition sensor, update the augmented reality animation based on the guest's face.
A method for manufacturing micro/nanofluidic devices comprising: a) depositing a thermosetting polymeric photoresin on two substrates of polymeric material covering the surface of a first wafer and a second wafer , b) photolithographing at a temperature of 80-95°C the layers of thermosetting polymeric photoresin deposited in step a), c) thereafter depositing metal components on said first wafer , d) microstructuring the metal components deposited in step c), e) depositing a layer of thermosetting polymeric photoresin on the microstructured metal components , f) at a temperature of 80-95°C photolithographing and developing the thermosetting polymeric photoresin deposited in step e) thereby defining microchannels and/or areas where the microstructured metal components with an outer medium are to be made, g) sealing at a temperature of 80-120°C the first wafer to the second wafer by means of superimposing them with the surfaces of the thermosetting polymeric photoresin facing one another, h) releasing the micro/nanofluidic devices thus formed between the first wafer and the second wafer from the substrates of polymeric material , and i) cutting the devices. a) depositing a thermosetting polymeric photoresin on two substrates of polymeric material covering the surface of a first wafer and a second wafer , b) photolithographing at a temperature of 80-95°C the layers of thermosetting polymeric photoresin deposited in step a), c) thereafter depositing metal components on said first wafer , d) microstructuring the metal components deposited in step c), e) depositing a layer of thermosetting polymeric photoresin on the microstructured metal components , f) at a temperature of 80-95°C photolithographing and developing the thermosetting polymeric photoresin deposited in step e) thereby defining microchannels and/or areas where the microstructured metal components with an outer medium are to be made, g) sealing at a temperature of 80-120°C the first wafer to the second wafer by means of superimposing them with the surfaces of the thermosetting polymeric photoresin facing one another, h) releasing the micro/nanofluidic devices thus formed between the first wafer and the second wafer from the substrates of polymeric material , and i) cutting the devices.
Fluid system for a pump circuit , particularly a hydraulic high-pressure pump circuit, with a function block , with fluid-conveying channels running in the housing of said block, to which valve components can at least partially be connected, wherein a filter device with its filter housing can be connected to the function block such that at least one filter element is at least partially received in the installation chamber of the function block, wherein the fluid-conveying channels are internally interconnected to one another inside the housing of the function block such as to form a kind of matrix structure made up of transverse and longitudinal rows of fluid-conveying pipes with placeholders integrated in the function block to install the respective valve components , characterised in that the filter device is intended for the use of a plurality of filter elements , through which flow passes in both directions for filtration or backwashing such that the one set of filter elements carry out filtration in one filtration position and at least one additional filter element can be backwashed in a backwashing position to clean its active filter surface, such that the fluid-conveying channels forming the filter inlet and the filter outlet are integrated in the function block , such that the respective filter element can be moved from its filtration position into the backwashing position and then back into the filtration position by means of a swivel device , and such that the swivel device comprises a receiving portion for receiving the filter elements which is arranged such that it can be rotated around a pivot pin inside the filter housing by means of a drive .
A method of reinforcing and/or lining an object comprising a wood composite, cardboard, concrete, brick, plaster, stone or sandwich structures with hard cover layers and comparably softer filling between the cover layers, the method comprising the steps of: - providing an initial opening in the object; - providing a thermoplastic reinforcement and/or lining element and a tool ; - placing the reinforcement and/or lining element in the initial opening, placing the tool in contact with a face of the reinforcement and/or lining element and pressing the tool against the face while energy is coupled into the tool and while a periphery of a liquefaction interface of the tool and the reinforcement and/or lining element is within the opening ; - thereby liquefying material of the reinforcement and/or lining element at the liquefaction interface to yield liquefied material, causing a relative movement of the tool with respect to the reinforcement and/or lining element, and causing portions of the liquefied material to penetrate into pores and/or cavities of the object; - allowing the liquefied material to harden and to thereby become reinforcement and/or lining material; and - removing the tool, - wherein at the liquefaction interface a full cross section of the reinforcement and/or lining element is liquefied. - providing an initial opening in the object; - providing a thermoplastic reinforcement and/or lining element and a tool ; - placing the reinforcement and/or lining element in the initial opening, placing the tool in contact with a face of the reinforcement and/or lining element and pressing the tool against the face while energy is coupled into the tool and while a periphery of a liquefaction interface of the tool and the reinforcement and/or lining element is within the opening ; - thereby liquefying material of the reinforcement and/or lining element at the liquefaction interface to yield liquefied material, causing a relative movement of the tool with respect to the reinforcement and/or lining element, and causing portions of the liquefied material to penetrate into pores and/or cavities of the object; - allowing the liquefied material to harden and to thereby become reinforcement and/or lining material; and - removing the tool, - wherein at the liquefaction interface a full cross section of the reinforcement and/or lining element is liquefied.